mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling access of a smart device to a router via a server, the smart device being provided with Wi-Fi function; wherein the method comprises: receiving, at the server, from the smart device, (i) a collection comprising SSIDs of access-barred routers corresponding to an identifier of the smart device, and (ii) the identifier of the smart device for a mapping storage; receiving at the server the identifier of the smart device and an SSID of a router currently accessed by the smart device; acquiring, from the mapping storage, at the server the collection comprising SSIDs of access-barred routers corresponding to the identifier of the smart device; judging at the server whether the router currently accessed by the smart device is an access-barred router, according to the SSID of the router currently accessed and the collection comprising SSIDs of access-barred routers, to obtain a judgment result; and transmitting from the server a corresponding instruction to the smart device according to the judgment result. receiving, at the server, from the smart device, (i) a collection comprising SSIDs of access-barred routers corresponding to an identifier of the smart device, and (ii) the identifier of the smart device for a mapping storage; receiving at the server the identifier of the smart device and an SSID of a router currently accessed by the smart device; acquiring, from the mapping storage, at the server the collection comprising SSIDs of access-barred routers corresponding to the identifier of the smart device; judging at the server whether the router currently accessed by the smart device is an access-barred router, according to the SSID of the router currently accessed and the collection comprising SSIDs of access-barred routers, to obtain a judgment result; and transmitting from the server a corresponding instruction to the smart device according to the judgment result.
A system for determining force balance on a knee joint during a surgical procedure, the system comprising: a tibial prosthesis including a bearing component, a base component, and a shim component, the bearing component, having a superior articulating surface and an inferior surface, and comprising a top portion, a bottom portion, a frame disposed between the top portion and the bottom portion, the base component having a superior surface and an inferior surface, and the shim component configured to be slidable between the inferior surface of the bearing component and the superior surface of the base component in an anterior/posterior direction, characterised in that a plurality of sensors are disposed between the frame and the bottom portion, the frame having a plurality of apertures corresponding in a size or shape to the plurality of sensors. a tibial prosthesis including a bearing component, a base component, and a shim component, the bearing component, having a superior articulating surface and an inferior surface, and comprising a top portion, a bottom portion, a frame disposed between the top portion and the bottom portion, the base component having a superior surface and an inferior surface, and the shim component configured to be slidable between the inferior surface of the bearing component and the superior surface of the base component in an anterior/posterior direction, characterised in that a plurality of sensors are disposed between the frame and the bottom portion, the frame having a plurality of apertures corresponding in a size or shape to the plurality of sensors.
Compound having formula and pharmaceutically accepted salts thereof, wherein X is oxygen, nitrogen, sulfur or Y represents an aromatic ring or heterocyclic ring comprising at least a nitrogen, optionally substituted by one or more substituents independently selected from C 1-6 alkyl, C 1-4 alkoxy, trifluoromethyl or halogen, Z represents C 1-10 saturated or unsaturated alkyl optionally substituted by an alkyl or alkylhydroxyl; or Z represents C 1-6 alkyl -NH-C - C 1-6 alkyl- or C 1-6 alkyl -NH-C - C 1-6 alkyl -O-; or Z represents C 1-10 alkyl -O- wherein said alkyl is unsaturated or saturated and can optionally be substituted by an alkyl or alkylhydroxyl, or Z represents C 1-6 alkyl-O-C 1-6 alkyl- wherein said alkyl is unsaturated or saturated and can optionally be substituted by an alkyl or alkylhydroxyl or Z represents C 1-6 alkyl-O-C 1-6 alkyl-O- wherein said alkyl is unsaturated or saturated and can optionally be substituted by an alkyl or alkylhydroxyl. Y represents an aromatic ring or heterocyclic ring comprising at least a nitrogen, optionally substituted by one or more substituents independently selected from C 1-6 alkyl, C 1-4 alkoxy, trifluoromethyl or halogen, Z represents C 1-10 saturated or unsaturated alkyl optionally substituted by an alkyl or alkylhydroxyl; or Z represents C 1-6 alkyl -NH-C - C 1-6 alkyl- or C 1-6 alkyl -NH-C - C 1-6 alkyl -O-; or Z represents C 1-10 alkyl -O- wherein said alkyl is unsaturated or saturated and can optionally be substituted by an alkyl or alkylhydroxyl, or Z represents C 1-6 alkyl-O-C 1-6 alkyl- wherein said alkyl is unsaturated or saturated and can optionally be substituted by an alkyl or alkylhydroxyl or Z represents C 1-6 alkyl-O-C 1-6 alkyl-O- wherein said alkyl is unsaturated or saturated and can optionally be substituted by an alkyl or alkylhydroxyl.
A photoelectric conversion device comprising a photoelectric conversion section forming a CMOS imager pixel and a peripheral circuit section on the same semiconductor substrate, wherein: the photoelectric conversion section includes a semiconductor diffusion layer as a light receiving part; the peripheral circuit section includes a MOS transistor configured to constitute a peripheral circuit which processes signals from the photoelectric conversion section; the MOS transistor has a source region, a drain region, a gate electrode and a side spacer on each of a source side and a drain side of the gate electrode; an interlayer insulating layer is provided on the semiconductor substrate; an electrode is provided in a contact hole of the interlayer insulating layer, being electrically connected to the MOS transistor; and wherein a silicide is provided by salicide processing on the source region, the drain region and the gate electrode in the peripheral circuit section and at bottoms of contact holes in the photoelectric conversion section, and the whole photoelectric conversion section except for the bottoms of contact holes is not provided with the silicide thereon. the photoelectric conversion section includes a semiconductor diffusion layer as a light receiving part; the peripheral circuit section includes a MOS transistor configured to constitute a peripheral circuit which processes signals from the photoelectric conversion section; the MOS transistor has a source region, a drain region, a gate electrode and a side spacer on each of a source side and a drain side of the gate electrode; an interlayer insulating layer is provided on the semiconductor substrate; an electrode is provided in a contact hole of the interlayer insulating layer, being electrically connected to the MOS transistor; and wherein a silicide is provided by salicide processing on the source region, the drain region and the gate electrode in the peripheral circuit section and at bottoms of contact holes in the photoelectric conversion section, and the whole photoelectric conversion section except for the bottoms of contact holes is not provided with the silicide thereon.
An in vitro method for detecting human IL-13 protein in a sample, comprising the step of: contacting a sample with an anti-human IL-13 antibody that comprises a variable heavy chain region comprising the complementarity determining regions CDRH1, CDRH2 and CDRH3 having the amino acid sequences of SEQ ID NO: 117, SEQ ID NO: 123, and SEQ ID NO: 135, respectively, and a variable light chain region comprising the complementarity determining regions CDRL1, CDRL2 and CDRL3 having the amino acid sequences of SEQ ID NO: 99, SEQ ID NO: 104, and SEQ ID NO: 115; and detecting human IL-13 protein through the occurrence of immunoreaction between the anti-human IL-13 antibody and the human IL-13 protein. contacting a sample with an anti-human IL-13 antibody that comprises a variable heavy chain region comprising the complementarity determining regions CDRH1, CDRH2 and CDRH3 having the amino acid sequences of SEQ ID NO: 117, SEQ ID NO: 123, and SEQ ID NO: 135, respectively, and a variable light chain region comprising the complementarity determining regions CDRL1, CDRL2 and CDRL3 having the amino acid sequences of SEQ ID NO: 99, SEQ ID NO: 104, and SEQ ID NO: 115; and detecting human IL-13 protein through the occurrence of immunoreaction between the anti-human IL-13 antibody and the human IL-13 protein.
A driving force control device for an electric vehicle having a plurality of motors (106a-106d), which independently drive a plurality of wheels (107a-107d), and a plurality of inverters (105a-105d), which control a drive current for each of the motors (106a-106d) in accordance with a driving force command value, the driving force control device comprising: target driving force calculation means that are configured to calculate a target driving force for each of the motors (106a-106d) in accordance with a vehicle operation performed by an operator of the vehicle or with the running status of the vehicle; command value output means that are configured to output the driving force command value to the inverters (105a-105d), characterized by determination means that are configured to determine whether the motors (106a-106d) engaged in power running and in regeneration coexist when each of the motors (106a-106d) is driven by the target driving force; driving force command value calculation means which are configured to, if the determination means determines that the motors (106a-106d) engaged in power running and in regeneration coexist, adjust the distribution of driving force for each of the motors (106a-106d), without changing an amount of yaw moment generation, in accordance with the target driving force for each of the motors (106a-106d) such that all the motors (106a-106d) are engaged in either power running or regeneration, and calculate an actual driving force command value for each of the motors (106a-106d) in accordance with the adjusted distribution of driving force for each of the motors (106a-106d). target driving force calculation means that are configured to calculate a target driving force for each of the motors (106a-106d) in accordance with a vehicle operation performed by an operator of the vehicle or with the running status of the vehicle; command value output means that are configured to output the driving force command value to the inverters (105a-105d), characterized by determination means that are configured to determine whether the motors (106a-106d) engaged in power running and in regeneration coexist when each of the motors (106a-106d) is driven by the target driving force; driving force command value calculation means which are configured to, if the determination means determines that the motors (106a-106d) engaged in power running and in regeneration coexist, adjust the distribution of driving force for each of the motors (106a-106d), without changing an amount of yaw moment generation, in accordance with the target driving force for each of the motors (106a-106d) such that all the motors (106a-106d) are engaged in either power running or regeneration, and calculate an actual driving force command value for each of the motors (106a-106d) in accordance with the adjusted distribution of driving force for each of the motors (106a-106d).
A method for the single step synthesis of 2-ethylhexanal comprising: contacting n-butyraldehyde and a hydrogen gas with a palladium on titania eggshell type catalyst under vapor-phase condensation conditions to obtain a reaction product comprising 2-ethylhexanal; wherein the palladium eggshell catalyst comprises a palladium shell deposited on a titania support comprising nano-sized particles of zero-valent palladium, the nano-sized particles of zero-valent palladium having a diameter less than 10 nanometers; and wherein the titania support has a particle diameter size ranging from 0.1 millimeter to 20 millimeter wherein the palladium shell deposited on the titania support is concentrated within 25 micrometers of the palladium eggshell type catalyst's exterior surface. contacting n-butyraldehyde and a hydrogen gas with a palladium on titania eggshell type catalyst under vapor-phase condensation conditions to obtain a reaction product comprising 2-ethylhexanal; wherein the palladium eggshell catalyst comprises a palladium shell deposited on a titania support comprising nano-sized particles of zero-valent palladium, the nano-sized particles of zero-valent palladium having a diameter less than 10 nanometers; and wherein the titania support has a particle diameter size ranging from 0.1 millimeter to 20 millimeter wherein the palladium shell deposited on the titania support is concentrated within 25 micrometers of the palladium eggshell type catalyst's exterior surface.
A method of operation of a femtocell basestation in a mobile communications network, wherein the mobile communications network comprises a plurality of macro layer basestations (12, 14, 16), each operating in a respective carrier frequency band, the method comprising: detecting a carrier in use by at least one of the macro layer basestations (12, 14, 16), wherein the detected carrier has a bandwidth, and selecting a carrier having said bandwidth for use in the femtocell basestation, based on the detected carrier in use by the at least one macro layer basestation, such that the selected carrier partially overlaps with the detected carrier in use by the at least one macro layer basestation, characterised in that the method further comprises: setting a downlink power for transmissions from the femtocell basestation, wherein the downlink power is set based on a frequency offset factor that is a function of a frequency offset between a centre frequency of the selected carrier and a centre frequency of the detected carrier, and wherein values of the frequency offset factor are related to corresponding values of the frequency offset. detecting a carrier in use by at least one of the macro layer basestations (12, 14, 16), wherein the detected carrier has a bandwidth, and selecting a carrier having said bandwidth for use in the femtocell basestation, based on the detected carrier in use by the at least one macro layer basestation, such that the selected carrier partially overlaps with the detected carrier in use by the at least one macro layer basestation, characterised in that the method further comprises: setting a downlink power for transmissions from the femtocell basestation, wherein the downlink power is set based on a frequency offset factor that is a function of a frequency offset between a centre frequency of the selected carrier and a centre frequency of the detected carrier, and wherein values of the frequency offset factor are related to corresponding values of the frequency offset. setting a downlink power for transmissions from the femtocell basestation, wherein the downlink power is set based on a frequency offset factor that is a function of a frequency offset between a centre frequency of the selected carrier and a centre frequency of the detected carrier, and wherein values of the frequency offset factor are related to corresponding values of the frequency offset.
A lithium electrode comprising: lithium metal layer; and a protective layer formed on at least one surface of the lithium metal layer, wherein the protective layer comprises a first protective layer formed on the at least one surface of the lithium metal layer; and a second protective layer formed on the first protective layer opposite to the lithium metal layer, the first protective layer comprises an ion conductive electrolyte, the second protective layer comprises an electrically conductive matrix and a crosslinked ion conductive electrolyte; and wherein the ion conductive electrolyte of the first protective layer comprises an ion conductive polymer and a lithium salt, and the crosslinked ion conductive electrolyte of the second protective layer comprises an ion conductive polymer, a cross-linking agent, and a lithium salt. lithium metal layer; and a protective layer formed on at least one surface of the lithium metal layer, wherein the protective layer comprises a first protective layer formed on the at least one surface of the lithium metal layer; and a second protective layer formed on the first protective layer opposite to the lithium metal layer, the first protective layer comprises an ion conductive electrolyte, the second protective layer comprises an electrically conductive matrix and a crosslinked ion conductive electrolyte; and wherein the ion conductive electrolyte of the first protective layer comprises an ion conductive polymer and a lithium salt, and the crosslinked ion conductive electrolyte of the second protective layer comprises an ion conductive polymer, a cross-linking agent, and a lithium salt.
A sole structure (10, 10A, 10B, 10C) for an article of footwear comprising: a sole plate (12, 12B, 12C) has a forefoot portion with a foot-facing surface (20, 20B); wherein the sole plate (12, 12B, 12C) has at least one groove extending at least partially transversely in the foot-facing surface (20, 20B); wherein the at least one groove is open when the sole structure (10, 10A, 10B, 10C) is dorsiflexed in a first portion of a flexion range, and closed when the sole structure (10, 10A, 10B, 10C) is dorsiflexed in a second portion of the flexion range that includes flex angles greater than in the first portion of the flexion range, wherein the at least one groove includes a series of grooves that have different depths, widths, and/or spacing from one another, and wherein grooves toward the middle of the series of grooves in a longitudinal direction are wider than grooves toward the anterior and posterior ends of the series of grooves. a sole plate (12, 12B, 12C) has a forefoot portion with a foot-facing surface (20, 20B); wherein the sole plate (12, 12B, 12C) has at least one groove extending at least partially transversely in the foot-facing surface (20, 20B); wherein the at least one groove is open when the sole structure (10, 10A, 10B, 10C) is dorsiflexed in a first portion of a flexion range, and closed when the sole structure (10, 10A, 10B, 10C) is dorsiflexed in a second portion of the flexion range that includes flex angles greater than in the first portion of the flexion range, wherein the at least one groove includes a series of grooves that have different depths, widths, and/or spacing from one another, and wherein grooves toward the middle of the series of grooves in a longitudinal direction are wider than grooves toward the anterior and posterior ends of the series of grooves.
A system for improving vision of a subject, comprising: a pulsed radiation system configured to apply, by refractive index writing, a plurality of pulses of radiation to at least one selected area of an intraocular lens implanted in an eye of a subject, according to a predetermined pattern; and a control system coupled to the pulsed radiation system and configured to control the pulsed radiation system and to perform functions that comprise: determining a desired phase map for producing, by refractive index writing, a phase change in an IOL implanted in an eye of a subject, the IOL having an anterior surface and a posterior surface; calculating vergence of a wave after refraction on the anterior surface of the IOL for a desired wavelength design; calculating propagation of a corresponding wavefront to the plane of the refractive index writing within the IOL; estimating curvature of the wavefront in the plane of the refractive index writing; and based on the estimated curvature, converting an initial phase map into a vergence-matched three-dimensional phase map, such that the initial phase map follows the curved vergence of the wavefront. a pulsed radiation system configured to apply, by refractive index writing, a plurality of pulses of radiation to at least one selected area of an intraocular lens implanted in an eye of a subject, according to a predetermined pattern; and a control system coupled to the pulsed radiation system and configured to control the pulsed radiation system and to perform functions that comprise: determining a desired phase map for producing, by refractive index writing, a phase change in an IOL implanted in an eye of a subject, the IOL having an anterior surface and a posterior surface; calculating vergence of a wave after refraction on the anterior surface of the IOL for a desired wavelength design; calculating propagation of a corresponding wavefront to the plane of the refractive index writing within the IOL; estimating curvature of the wavefront in the plane of the refractive index writing; and based on the estimated curvature, converting an initial phase map into a vergence-matched three-dimensional phase map, such that the initial phase map follows the curved vergence of the wavefront. determining a desired phase map for producing, by refractive index writing, a phase change in an IOL implanted in an eye of a subject, the IOL having an anterior surface and a posterior surface; calculating vergence of a wave after refraction on the anterior surface of the IOL for a desired wavelength design; calculating propagation of a corresponding wavefront to the plane of the refractive index writing within the IOL; estimating curvature of the wavefront in the plane of the refractive index writing; and based on the estimated curvature, converting an initial phase map into a vergence-matched three-dimensional phase map, such that the initial phase map follows the curved vergence of the wavefront.
A woven fabric for an airbag comprising synthetic fibers selected from the group consisting of polyamide fiber and polyester fiber, wherein the woven fabric is not coated with a resin, and in a rising-temperature Differential Scanning Calorimeter endothermic curve of the woven fabric, the ratio of the amount of heat absorbed on the high-temperature side of the peak temperature of the melting endotherm in the rising-temperature DSC endothermic curve of the constituent yarn of the woven fabric, to the overall heat absorbed, measured as described in the description, exceeds 50%, wherein the woven fabric is produced by a process comprising the steps of: weaving a fabric with a water jet loom by using a raw yarn having a strength of 8.5 to 10.0 cN/dtex, measured as described in the description, under the condition of the warp yarn tension during weaving is 0.25 to 0.65 cN/dtex, and dry finishing at no higher than 120°C without scouring. weaving a fabric with a water jet loom by using a raw yarn having a strength of 8.5 to 10.0 cN/dtex, measured as described in the description, under the condition of the warp yarn tension during weaving is 0.25 to 0.65 cN/dtex, and dry finishing at no higher than 120°C without scouring.
Process for producing cement, the process comprising providing heat to a cement clinker manufacturing process using a secondary fuel, wherein the secondary fuel comprises cellulose and plastic and is in the form of pellets of a size between 3-25 mm thickness, having a calorific value of 16 GJ/ton or more, wherein the pellets individually have an average density between 0.7 and 1.3 kg/dm 3, and wherein said secondary fuel is supplied at a place between the kiln inlet and the first cyclone, wherein the cement clinker is cooled and milled to cement powder.
A hair shaping composition suitable for topical application to hair, the composition comprising from 1 to 5wt% by weight based on the total weight of the composition of glyceraldehyde and from 1 to 5wt% by weight based on the total weight of the composition of urea compound of the general formula: in which R1, R2, R3 and R4 are each hydrogen; dissolved in an aqueous carrier.