mhurhangee/patent-ind-claim-en huggingface dataset:
A CMP slurry comprising: a carrier; a particulate material within the carrier comprising an alumina containing material wherein the alumina containing material comprises a majority content of alpha alumina and a transition phase alumina at a content of at least 0.5 wt.% and not greater than 20 wt.% for a total weight of the particulate material; an oxidizer comprising at least one material selected from the group of peroxides, persulfates, permanganates, periodates, perchlorates, hypochlorites, iodates, peroxymonosulfates, cerric ammonium nitrate, periodic acid, ferricyanides, or any combination thereof; and a material removal rate index (MRR) of at least 500 nm/hr and an average roughness index (Ra) of not greater than 0.5 nm (5 Angstroms) according to the Standardized Polishing Test conducted on a 10.16 cm (4") diameter GaN wafer (Ga-face) as further specified in the description. a carrier; a particulate material within the carrier comprising an alumina containing material wherein the alumina containing material comprises a majority content of alpha alumina and a transition phase alumina at a content of at least 0.5 wt.% and not greater than 20 wt.% for a total weight of the particulate material; an oxidizer comprising at least one material selected from the group of peroxides, persulfates, permanganates, periodates, perchlorates, hypochlorites, iodates, peroxymonosulfates, cerric ammonium nitrate, periodic acid, ferricyanides, or any combination thereof; and a material removal rate index (MRR) of at least 500 nm/hr and an average roughness index (Ra) of not greater than 0.5 nm (5 Angstroms) according to the Standardized Polishing Test conducted on a 10.16 cm (4") diameter GaN wafer (Ga-face) as further specified in the description.
An infrared detector (100; 101; 102; 103; 104) comprising: a plurality of infrared sensors ; a plurality of infrared transmitting members which are made of synthetic resin, and arranged one-by-one in front of the plurality of infrared sensors ; a housing that accommodates the plurality of infrared sensors and supports the plurality of infrared transmitting members ; and a light shielding plate (9; 9a; 9b; 9c) that shields infrared light and is detachably attached to the housing to overlap at least one infrared transmitting member of the plurality of infrared transmitting members ; wherein the light shielding plate (9; 9a; 9b; 9c) is attached to the housing to extend over at least two infrared transmitting members of the plurality of infrared transmitting members ; characterized in that : the housing includes a housing body , and a decorative cover that is attached to the housing body and includes a plurality of window holes for individually exposing the plurality of infrared transmitting members ; the decorative cover includes a front surface and a rear surface ; and the light shielding plate (9; 9a; 9b; 9c) includes first part in contact with the front surface of the decorative cover and second part (92; 92a; 92b; 92c) in contact with the rear surface . a plurality of infrared sensors ; a plurality of infrared transmitting members which are made of synthetic resin, and arranged one-by-one in front of the plurality of infrared sensors ; a housing that accommodates the plurality of infrared sensors and supports the plurality of infrared transmitting members ; and a light shielding plate (9; 9a; 9b; 9c) that shields infrared light and is detachably attached to the housing to overlap at least one infrared transmitting member of the plurality of infrared transmitting members ; wherein the light shielding plate (9; 9a; 9b; 9c) is attached to the housing to extend over at least two infrared transmitting members of the plurality of infrared transmitting members ; characterized in that : the housing includes a housing body , and a decorative cover that is attached to the housing body and includes a plurality of window holes for individually exposing the plurality of infrared transmitting members ; the decorative cover includes a front surface and a rear surface ; and the light shielding plate (9; 9a; 9b; 9c) includes first part in contact with the front surface of the decorative cover and second part (92; 92a; 92b; 92c) in contact with the rear surface . the housing includes a housing body , and a decorative cover that is attached to the housing body and includes a plurality of window holes for individually exposing the plurality of infrared transmitting members ; the decorative cover includes a front surface and a rear surface ; and the light shielding plate (9; 9a; 9b; 9c) includes first part in contact with the front surface of the decorative cover and second part (92; 92a; 92b; 92c) in contact with the rear surface .
A fixed abrasive article comprising: a matrix material (302; 401) and abrasive particles (306; 406) embedded in the matrix material, the abrasive particles having a core-shell structure that includes a polycrystalline alpha alumina core (203; 307; 403) and a shell layer (201; 309; 405) having a porosity of not greater than 10 vol% overlying the polycrystalline alpha alumina core and comprising a polycrystalline material selected from the group consisting of silicon oxide and zirconium oxide, the polycrystalline alpha alumina core comprising grains having an average grain size of not greater than 500 nm, wherein the shell layer comprises not less than 95 vol% silicon oxide or no less than 95 vol% zirconium oxide.
An information transmission method, comprising: generating, by a control platform, forwarding information of a Bit Indexed Explicit Replication, BIER, network (S110); sending, by the control platform according to the forwarding information of the BIER network, a BIER flow table to an ingress forwarding device of forwarding devices through an OpenFlow protocol (S120) for indicating, by the control platform, the ingress forwarding device to send a received multicast packet in a multicast manner according to the BIER flow table, wherein the BIER flow table comprises multicast flow information and BIER information, wherein the BIER information comprises a BitString, the BitString being formed by a set of BIER egress forwarding devices; and wherein the multicast flow information and the BIER information are only sent to the ingress forwarding device. generating, by a control platform, forwarding information of a Bit Indexed Explicit Replication, BIER, network (S110); sending, by the control platform according to the forwarding information of the BIER network, a BIER flow table to an ingress forwarding device of forwarding devices through an OpenFlow protocol (S120) for indicating, by the control platform, the ingress forwarding device to send a received multicast packet in a multicast manner according to the BIER flow table, wherein the BIER flow table comprises multicast flow information and BIER information, wherein the BIER information comprises a BitString, the BitString being formed by a set of BIER egress forwarding devices; and wherein the multicast flow information and the BIER information are only sent to the ingress forwarding device.
A display device comprising: a display panel having a display area (DA) and a non-display area (NDA); a window disposed on the display panel ; a bezel portion disposed on the window , the bezel portion at least partially overlapping the non-display area (NDA); and a photo-curable adhesive layer disposed between the display panel and the window , wherein the display panel comprises: a first substrate ; and a wiring unit comprising a plurality of wirings disposed on the first substrate , wherein the wiring unit has a wide gap portion defined by two neighbouring wirings (W1 and W2), wherein a size of a gap between the two neighbouring wirings (W1 and W2) in the wide gap portion is greater than a size of a gap between the two neighbouring wirings (W1 and W2) on both sides of the wide gap portion , and wherein the wide gap portion at least partially overlaps the bezel portion and the adhesive layer , wherein the wide gap portion is an ultrasound inspection area configured to enable ultrasonic waves to be irradiated from the outside through the wide gap portion to reach the adhesive layer to determine a degree to which the adhesive layer has been cured. a display panel having a display area (DA) and a non-display area (NDA); a window disposed on the display panel ; a bezel portion disposed on the window , the bezel portion at least partially overlapping the non-display area (NDA); and a photo-curable adhesive layer disposed between the display panel and the window , wherein the display panel comprises: a first substrate ; and a wiring unit comprising a plurality of wirings disposed on the first substrate , wherein the wiring unit has a wide gap portion defined by two neighbouring wirings (W1 and W2), wherein a size of a gap between the two neighbouring wirings (W1 and W2) in the wide gap portion is greater than a size of a gap between the two neighbouring wirings (W1 and W2) on both sides of the wide gap portion , and wherein the wide gap portion at least partially overlaps the bezel portion and the adhesive layer , wherein the wide gap portion is an ultrasound inspection area configured to enable ultrasonic waves to be irradiated from the outside through the wide gap portion to reach the adhesive layer to determine a degree to which the adhesive layer has been cured. a first substrate ; and a wiring unit comprising a plurality of wirings disposed on the first substrate , wherein the wiring unit has a wide gap portion defined by two neighbouring wirings (W1 and W2), wherein a size of a gap between the two neighbouring wirings (W1 and W2) in the wide gap portion is greater than a size of a gap between the two neighbouring wirings (W1 and W2) on both sides of the wide gap portion , and wherein the wide gap portion at least partially overlaps the bezel portion and the adhesive layer , wherein the wide gap portion is an ultrasound inspection area configured to enable ultrasonic waves to be irradiated from the outside through the wide gap portion to reach the adhesive layer to determine a degree to which the adhesive layer has been cured.
An agent capable of specifically inhibiting or suppressing the level of DUX4-fl expression in a population of cells in a mammalian subject, for use in a method of treating a mammalian subject suffering from, or at risk for developing, Facioscapulohumeral Dystrophy (FSHD), wherein the agent comprises a nucleic acid that is: (i) an antisense nucleic acid that is complementary to a portion of SEQ ID NO: 66 or SEQ ID NO: 67 that is at least 8 nucleotides in length; (ii) an antisense nucleic acid that is at least ninety percent identical to the complement of the DUX4-fl cDNA consisting of the nucleic acid sequence set forth in SEQ ID NO: 66 or SEQ ID NO: 67; (iii) a nucleic acid that is a portion of SEQ ID NO: 66 or SEQ ID NO: 67 that is between 8 and 25 nucleotides in length; or (iv) a nucleic acid sequence that is SEQ ID NO: 66 or SEQ ID NO: 67, or a complement thereof. (i) an antisense nucleic acid that is complementary to a portion of SEQ ID NO: 66 or SEQ ID NO: 67 that is at least 8 nucleotides in length; (ii) an antisense nucleic acid that is at least ninety percent identical to the complement of the DUX4-fl cDNA consisting of the nucleic acid sequence set forth in SEQ ID NO: 66 or SEQ ID NO: 67; (iii) a nucleic acid that is a portion of SEQ ID NO: 66 or SEQ ID NO: 67 that is between 8 and 25 nucleotides in length; or (iv) a nucleic acid sequence that is SEQ ID NO: 66 or SEQ ID NO: 67, or a complement thereof.
A vehicle controller capable of automated driving control of a vehicle , comprising a satisfaction determining unit and a vehicle control unit , wherein: the satisfaction determining unit is configured to determine whether a function of automatically stopping the vehicle has been executed, the function being executed due to not satisfying a driver-related condition, the driver-related condition being a condition for continuing the automated driving control of the vehicle ; in a case that the satisfaction determining unit determines that the function of automatically stopping the vehicle has been executed, the satisfaction determining unit is configured to determine whether a behavior of a driver of the vehicle satisfies a predetermined enabling condition relating to driving control of the vehicle , and the vehicle control unit is configured to perform the automated driving control of the vehicle only when the behavior of the driver satisfies the enabling condition; in a case that the satisfaction determining unit determines that the function of automatically stopping the vehicle has not been executed, the enabling condition is not imposed; and the setting of the enabling condition is for drawing the driver's attention to the driving control of the vehicle, even during the automated driving control. the satisfaction determining unit is configured to determine whether a function of automatically stopping the vehicle has been executed, the function being executed due to not satisfying a driver-related condition, the driver-related condition being a condition for continuing the automated driving control of the vehicle ; in a case that the satisfaction determining unit determines that the function of automatically stopping the vehicle has been executed, the satisfaction determining unit is configured to determine whether a behavior of a driver of the vehicle satisfies a predetermined enabling condition relating to driving control of the vehicle , and the vehicle control unit is configured to perform the automated driving control of the vehicle only when the behavior of the driver satisfies the enabling condition; in a case that the satisfaction determining unit determines that the function of automatically stopping the vehicle has not been executed, the enabling condition is not imposed; and the setting of the enabling condition is for drawing the driver's attention to the driving control of the vehicle, even during the automated driving control.
A thermal protective coating, comprising, in dry admixture: from 5 % to 35 % of colloidal silica, colloidal alumina, or combinations thereof; from 23 % to 79 % of a filler taken from the group consisting of silicon dioxide, aluminum oxide, titanium dioxide, magnesium oxide, calcium oxide, and boron oxide; from 2 % to 20 % of one or more emissivity agents taken from the group consisting of silicon hexaboride, boron carbide, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, cupric chromite, and metallic oxides; and from 1.5 % to 5.0 % of a stabilizer taken from the group consisting of bentonite, kaolin, magnesium alumina silica clay, tabular alumina, and stabilized zirconium oxide. from 5 % to 35 % of colloidal silica, colloidal alumina, or combinations thereof; from 23 % to 79 % of a filler taken from the group consisting of silicon dioxide, aluminum oxide, titanium dioxide, magnesium oxide, calcium oxide, and boron oxide; from 2 % to 20 % of one or more emissivity agents taken from the group consisting of silicon hexaboride, boron carbide, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, cupric chromite, and metallic oxides; and from 1.5 % to 5.0 % of a stabilizer taken from the group consisting of bentonite, kaolin, magnesium alumina silica clay, tabular alumina, and stabilized zirconium oxide.
A process for producing an allyl-substituted bisphenol compound comprising: a step of subjecting a diallyl etherified bisphenol compound represented by the following general formula (I) to a thermal rearrangement reaction in the presence of a phosphine compound represented by the following general formula (II): [in the formula, A represents a single bond, -SO 2 -, -S-, -O-, a divalent group represented by the following formula (i-1), or a divalent group represented by -CY 1 Y 2 - (Y 1 and Y 2 each independently represent hydrogen, a linear, branched, or cyclic alkyl group having 6 or less carbon atoms, a phenyl group, or an aralkyl group having 7 or 8 carbon atoms), B 1 and B 2 each independently represent a linear, branched, or cyclic alkyl group having 6 or less carbon atoms, an allyl group, a phenyl group, or an aralkyl group having 7 or 8 carbon atoms, and n 1 and n 2 each independently represent an integer from 0 to 2, [in the formula, R 1 , R 2 , and R 3 each independently represent a linear, branched, or cyclic alkyl group having from 6 to 10 carbon atoms, an aryl group having from 6 to 14 carbon atoms, or an aralkyl group having 7 or 8 carbon atoms].
A device for detecting ionizing radiation comprising a network comprising: a first material for transporting positive electrical charges; a second material for transporting negative electrical charges, the first and second materials being dispersed within the network to form a plurality of electrical junctions; and a plurality of nanoparticles dispersed within the network, characterized in that said nanoparticles have: a) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and the at least one dimension being less than 100nm; or b) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and a further at least one dimension being less than 100nm, and wherein, in use, said nanoparticles convert incoming ionizing radiation into free positive and negative electrical charges for transportation by said first and second materials respectively. a first material for transporting positive electrical charges; a second material for transporting negative electrical charges, the first and second materials being dispersed within the network to form a plurality of electrical junctions; and a plurality of nanoparticles dispersed within the network, characterized in that said nanoparticles have: a) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and the at least one dimension being less than 100nm; or b) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and a further at least one dimension being less than 100nm, and wherein, in use, said nanoparticles convert incoming ionizing radiation into free positive and negative electrical charges for transportation by said first and second materials respectively. a) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and the at least one dimension being less than 100nm; or b) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and a further at least one dimension being less than 100nm,
A fluid-transfer article comprising: a first region for holding an aerosol precursor and for transferring said aerosol precursor to an activation surface of a second region of said article , said activation surface being disposed at an end of said article configured for thermal interaction with a heating surface of an aerosol-generation apparatus ; said activation surface including at least one arcuate surface portion , wherein said second region comprises at least one discontinuity in said activation surface to form a corresponding at least one channel between said activation surface and said heating surface , the or each said channel being configured for providing a fluid pathway across said activation surface , and being at least partly defined by a respective said arcuate surface portion , said arcuate surface portion defining at least part of an internal surface of the channel , and characterised in that said activation surface is configured such that, when the fluid transfer article is arranged with respect to a said heating surface for thermal interaction therebetween, the or each said arcuate surface portion opposes said heating surface and is concave towards said heating surface , wherein the or each said channel is at least partly defined by a pair of spaced apart side walls , said arcuate surface portion extending between said side walls to form a ceiling portion of said channel , wherein said arcuate surface portion blends smoothly with each of said side walls , thereby eliminating a sharp corner therebetween. a first region for holding an aerosol precursor and for transferring said aerosol precursor to an activation surface of a second region of said article , said activation surface being disposed at an end of said article configured for thermal interaction with a heating surface of an aerosol-generation apparatus ; said activation surface including at least one arcuate surface portion , wherein said second region comprises at least one discontinuity in said activation surface to form a corresponding at least one channel between said activation surface and said heating surface , the or each said channel being configured for providing a fluid pathway across said activation surface , and being at least partly defined by a respective said arcuate surface portion , said arcuate surface portion defining at least part of an internal surface of the channel , and characterised in that said activation surface is configured such that, when the fluid transfer article is arranged with respect to a said heating surface for thermal interaction therebetween, the or each said arcuate surface portion opposes said heating surface and is concave towards said heating surface , wherein the or each said channel is at least partly defined by a pair of spaced apart side walls , said arcuate surface portion extending between said side walls to form a ceiling portion of said channel , wherein said arcuate surface portion blends smoothly with each of said side walls , thereby eliminating a sharp corner therebetween.
An apparatus comprising: a support structure configured to at least partially enclose the torso or an appendage of a user; a spring module disposed on the support structure ; characterized by : a first section of flexible circuitry disposed on the spring module ; and a first sensor disposed on the first section of the flexible circuitry and configured to monitor the user. a support structure configured to at least partially enclose the torso or an appendage of a user; a spring module disposed on the support structure ; characterized by : a first section of flexible circuitry disposed on the spring module ; and a first sensor disposed on the first section of the flexible circuitry and configured to monitor the user. a first section of flexible circuitry disposed on the spring module ; and a first sensor disposed on the first section of the flexible circuitry and configured to monitor the user.