mhurhangee/patent-ind-claim-en huggingface dataset:
A polyethylene resin prepared using a continuous process and at least one metallocene catalyst, said polyethylene resin having: a molecular weight distribution M w /M n lower than 6.5; a molecular weight distribution M w /M n of at least 3.5; a density of at most 0.932 g/cm 3 as measured according to the method of standard ISO 1183-1:2012 method A at a temperature of 23 °C; a melt index ranging from an HLMI of at least 1.20 g/10 min to an MI 2 of at most 6.0 g/10 min wherein MI 2 is determined according to ISO 1133:1997 at a temperature of 190 °C and under a load of 2.16 kg, and HLMI is determined according to ISO 1133:1997, at a temperature of 190 °C and under a load of 21.6 kg; a melt index ratio HLMI/MI 2 below or equal to 30; and a melt strength of X in Newtons, as determined by Göttfert Rheotens Melt Strength Apparatus, 190 °C, as described in the Experimental section, satisfying the following equations and/or : X is greater than - 0.026 In( MI 2 ) + 0.0498 X is greater than - 0.026 In(HLMI) + 0.1334 with M w being the weight-average molecular weight and M n being the number-average molecular weight. a molecular weight distribution M w /M n lower than 6.5; a molecular weight distribution M w /M n of at least 3.5; a density of at most 0.932 g/cm 3 as measured according to the method of standard ISO 1183-1:2012 method A at a temperature of 23 °C; a melt index ranging from an HLMI of at least 1.20 g/10 min to an MI 2 of at most 6.0 g/10 min wherein MI 2 is determined according to ISO 1133:1997 at a temperature of 190 °C and under a load of 2.16 kg, and HLMI is determined according to ISO 1133:1997, at a temperature of 190 °C and under a load of 21.6 kg; a melt index ratio HLMI/MI 2 below or equal to 30; and a melt strength of X in Newtons, as determined by Göttfert Rheotens Melt Strength Apparatus, 190 °C, as described in the Experimental section, satisfying the following equations and/or : X is greater than - 0.026 In( MI 2 ) + 0.0498 X is greater than - 0.026 In(HLMI) + 0.1334 X is greater than - 0.026 In( MI 2 ) + 0.0498 X is greater than - 0.026 In(HLMI) + 0.1334 with M w being the weight-average molecular weight and M n being the number-average molecular weight.
An air inlet for a nacelle for an aircraft comprising: - at least one acoustic panel , adapted to lower the noise generated by an engine to which the air inlet can be connected; - at least one lip , defining the profile upon which an air flow flowing into the air inlet can act; and - at least one engine ring , adapted to connect the air inlet to the engine comprised in the nacelle ; wherein said at least one acoustic panel , said at least one lip and said at least one engine ring of the air inlet are manufactured as one single piece made of a composite material; and wherein said at least one acoustic panel , said at least one lip and said at least one engine ring of the air inlet are manufactured in one single body made of a composite material. - at least one acoustic panel , adapted to lower the noise generated by an engine to which the air inlet can be connected; - at least one lip , defining the profile upon which an air flow flowing into the air inlet can act; and - at least one engine ring , adapted to connect the air inlet to the engine comprised in the nacelle ;
A railway vehicle disc brake apparatus comprising: a caliper lever configured to be pivotal about a predetermined fulcrum shaft so that a pad is movable in a direction extending toward a disc and in a direction extending away from the disc ; and a drive device that drives the caliper lever about the fulcrum shaft , wherein the caliper lever includes an effort-side arm coupled to the drive device , a fulcrum portion that extends from the effort-side arm and is coupled to the fulcrum shaft , two load-side arms that extend from the fulcrum portion , and a load portion that connects the two load-side arms to each other and holds the pad with a predetermined load shaft, the two load-side arms are inclined so that a distance between the two load-side arms decreases as the load portion becomes closer, and each of the load-side arms is inclined relative to a reference plane (P3) that is orthogonal to a direction in which the load portion extends, the railway vehicle disc brake apparatus being characterized in that an outer surface in the load portion includes a recess which is arc-shaped as viewed from beside and smoothly continuous with each of the outer surface in each of the two load-side arms . a caliper lever configured to be pivotal about a predetermined fulcrum shaft so that a pad is movable in a direction extending toward a disc and in a direction extending away from the disc ; and a drive device that drives the caliper lever about the fulcrum shaft , wherein the caliper lever includes an effort-side arm coupled to the drive device , a fulcrum portion that extends from the effort-side arm and is coupled to the fulcrum shaft , two load-side arms that extend from the fulcrum portion , and a load portion that connects the two load-side arms to each other and holds the pad with a predetermined load shaft, an effort-side arm coupled to the drive device , a fulcrum portion that extends from the effort-side arm and is coupled to the fulcrum shaft , two load-side arms that extend from the fulcrum portion , and a load portion that connects the two load-side arms to each other and holds the pad with a predetermined load shaft, the two load-side arms are inclined so that a distance between the two load-side arms decreases as the load portion becomes closer, and each of the load-side arms is inclined relative to a reference plane (P3) that is orthogonal to a direction in which the load portion extends, the railway vehicle disc brake apparatus being characterized in that an outer surface in the load portion includes a recess which is arc-shaped as viewed from beside and smoothly continuous with each of the outer surface in each of the two load-side arms .
A method of generating a multi-channel audio signal, the method comprising: representing locations of a plurality of speakers as a mesh structure comprising a plurality of polygons whose vertices are at locations corresponding to the locations of the plurality of speakers (S1101); acquiring a location of an object sound (S1102) from metadata, wherein an object sound is sound emanating from or associated with an object; calculating, by way of a hardware-based processor, a plurality of distances between each of the plurality of polygons included in the mesh structure and the acquired location of the object sound (S1103); selecting one of the plurality of polygons on the basis of the plurality of calculated distances (S1104); and generating a multi-channel audio signal that corresponds to speakers corresponding to the selected polygon by mapping the object sound to the speakers corresponding to the selected polygon (S1105), wherein the calculating of the distances comprises: selecting an arbitrary point on each of the plurality of polygons as a reference point; and calculating distances between each of the selected reference points and the location of the object sound, wherein the selecting one of the plurality of polygons comprises: selecting one of the plurality of polygons corresponding to a shortest distance among the plurality of calculated distances. representing locations of a plurality of speakers as a mesh structure comprising a plurality of polygons whose vertices are at locations corresponding to the locations of the plurality of speakers (S1101); acquiring a location of an object sound (S1102) from metadata, wherein an object sound is sound emanating from or associated with an object; calculating, by way of a hardware-based processor, a plurality of distances between each of the plurality of polygons included in the mesh structure and the acquired location of the object sound (S1103); selecting one of the plurality of polygons on the basis of the plurality of calculated distances (S1104); and generating a multi-channel audio signal that corresponds to speakers corresponding to the selected polygon by mapping the object sound to the speakers corresponding to the selected polygon (S1105), wherein the calculating of the distances comprises: selecting an arbitrary point on each of the plurality of polygons as a reference point; and calculating distances between each of the selected reference points and the location of the object sound, selecting an arbitrary point on each of the plurality of polygons as a reference point; and calculating distances between each of the selected reference points and the location of the object sound, wherein the selecting one of the plurality of polygons comprises: selecting one of the plurality of polygons corresponding to a shortest distance among the plurality of calculated distances.
A recombinant adeno-associated virus (AAV) vector comprising: (a) a variant AAV2 capsid protein, wherein the variant AAV2 capsid protein comprises at least four amino acid substitutions with respect to a wild type AAV2 capsid protein; wherein the at least four amino acid substitutions are present at the following positions in an AAV2 capsid protein sequence: 457, 492, 499 and 533; and further comprises amino acid substitutions with respect to the wild type AAV capsid protein at the following positions in the AAV2 capsid protein sequence: 125, 151, 162 and 205, (b) a heterologous nucleic acid comprising a nucleotide sequence encoding a gene product; wherein the wild type AAV capsid protein comprises a sequence of SEQ ID NO:1. (a) a variant AAV2 capsid protein, wherein the variant AAV2 capsid protein comprises at least four amino acid substitutions with respect to a wild type AAV2 capsid protein; wherein the at least four amino acid substitutions are present at the following positions in an AAV2 capsid protein sequence: 457, 492, 499 and 533; and further comprises amino acid substitutions with respect to the wild type AAV capsid protein at the following positions in the AAV2 capsid protein sequence: 125, 151, 162 and 205, (b) a heterologous nucleic acid comprising a nucleotide sequence encoding a gene product;
A stapling assembly for use with a surgical stapler , comprising: a cartridge having a plurality of staples disposed therein, the plurality of staples being configured to be deployed into tissue; and a knitted adjunct configured to be releasably retained on the cartridge such that the adjunct can be attached to tissue by the plurality of staples in the cartridge , the adjunct comprising first fibers , second fibers , and spacer fibers , wherein the first fibers and the spacer fibers are intertwined to form a top layer of the adjunct , the second fibers and the spacer fibers are intertwined to form a bottom layer of the adjunct , and the first fibers , the second fibers , and the spacer fibers are intertwined to form at least one finished edge extending between the top and bottom layers such that the at least one finished edge substantially prevents fraying, wherein the spacer fibers extend from the top layer to the bottom layer to form an intermediate layer therebetween; characterized in that : only spacer fibers are present in the intermediate layer . a cartridge having a plurality of staples disposed therein, the plurality of staples being configured to be deployed into tissue; and a knitted adjunct configured to be releasably retained on the cartridge such that the adjunct can be attached to tissue by the plurality of staples in the cartridge , the adjunct comprising first fibers , second fibers , and spacer fibers , wherein the first fibers and the spacer fibers are intertwined to form a top layer of the adjunct , the second fibers and the spacer fibers are intertwined to form a bottom layer of the adjunct , and the first fibers , the second fibers , and the spacer fibers are intertwined to form at least one finished edge extending between the top and bottom layers such that the at least one finished edge substantially prevents fraying, wherein the spacer fibers extend from the top layer to the bottom layer to form an intermediate layer therebetween; characterized in that : only spacer fibers are present in the intermediate layer .
An apparatus to be included in a user equipment , the apparatus comprising: TCP layer circuitry configured to generate a plurality of TCP packets intended for transmission to a remote host ; an agent , coupled with the TCP layer circuitry , configured to intercept the plurality of TCP packets , configured to encapsulate payload data from the plurality of TCP packets into a plurality of data packets according to another protocol , and configured to provide acknowledgment data to the TCP layer circuitry based ARQ data that is based on transmission of the plurality of data packets ; and link layer circuitry , coupled with the agent , configured to determine the ARQ data based on the transmission of the plurality of data packets over a network. TCP layer circuitry configured to generate a plurality of TCP packets intended for transmission to a remote host ; an agent , coupled with the TCP layer circuitry , configured to intercept the plurality of TCP packets , configured to encapsulate payload data from the plurality of TCP packets into a plurality of data packets according to another protocol , and configured to provide acknowledgment data to the TCP layer circuitry based ARQ data that is based on transmission of the plurality of data packets ; and link layer circuitry , coupled with the agent , configured to determine the ARQ data based on the transmission of the plurality of data packets over a network.
A rapidly dispersible solid dosage form dispersing in 15 sec or less when placed in 15 ml of aqueous fluid, said dosage form comprising a porous non-compressed, three-dimensionally printed bound matrix comprising: (i) preformed drug-containing particles having an average, mean or median effective particle size of 50 to 400 μm and comprising (a) native oxcarbazepine (OXC) particles not containing any added excipients, (b) at least one disintegrant, (c) at least one surfactant, and (d) at least one binder; (ii) at least one disintegrant; and (iii) at least one binder; wherein in the drug-containing particles, OXC is present as a mixture of two different native drug powders, each having its own native drug particle size distribution and wherein the first ratio of effective particle size to native OXC particle size is >1:1 to 5:1 with respect to the first native OXC, and the second ratio of effective particle size to native OXC particle size is 20:1 to 50:1 with respect to the second native OXC. (i) preformed drug-containing particles having an average, mean or median effective particle size of 50 to 400 μm and comprising (a) native oxcarbazepine (OXC) particles not containing any added excipients, (b) at least one disintegrant, (c) at least one surfactant, and (d) at least one binder; (a) native oxcarbazepine (OXC) particles not containing any added excipients, (b) at least one disintegrant, (c) at least one surfactant, and (d) at least one binder; (ii) at least one disintegrant; and (iii) at least one binder;
A bus type switch socket bracket comprising a body , the body comprising at least one control panel mounting hole , the control panel mounting hole comprising an bare contact pad arranged on the sides thereof and connected with a first contact body embedded in the body ; characterized in that the bare contact pad is a bus access port for providing low-voltage direct current power supply, communication and control lines of various control panels mounted on the body ; wherein the contact pad is arranged on the upper and low ends of two opposite sides of the control panel mounting hole and the first contact body is connected with a second contact body received in the body .
A method for monitoring a reflectance of a mirror target (M) that includes at least one curved mirror, the method comprising: obtaining a first irradiance measurement of the sun (S), the first irradiance measurement representing a direct solar irradiance; obtaining a second irradiance measurement that represents an irradiance from a reflection of the sun from the mirror target plus background irradiance; obtaining a third irradiance measurement that represents the background irradiance; determining a reflectance of the mirror target from the first, second, and third irradiance measurements; determining that the reflectance of the mirror target is less than a specified reflectance threshold; and in response to the determination that the reflectance of the mirror target is less than the specified reflectance threshold, generating an alert signal. obtaining a first irradiance measurement of the sun (S), the first irradiance measurement representing a direct solar irradiance; obtaining a second irradiance measurement that represents an irradiance from a reflection of the sun from the mirror target plus background irradiance; obtaining a third irradiance measurement that represents the background irradiance; determining a reflectance of the mirror target from the first, second, and third irradiance measurements; determining that the reflectance of the mirror target is less than a specified reflectance threshold; and in response to the determination that the reflectance of the mirror target is less than the specified reflectance threshold, generating an alert signal.
An evolved Node B, eNB , comprising: device-to-device, D2D, circuitry configured to allocate a plurality of periodic discovery zones for D2D discovery, wherein : each of the plurality of periodic discovery zones includes a first plurality of resource blocks and a second plurality of subframes; the D2D circuitry is further configured to configure a User Equipment, UE , to utilize at least one of the plurality of periodic discovery zones for transmitting a discovery message; the plurality of periodic discovery zones are partitioned such that the plurality of periodic discovery zones comprise at least one non-contention based discovery zone that is available to D2D UE's in Radio Resource Control, RRC, connected mode with the eNB , and at least one contention based discovery zone that is available to all D2D UE's irrespective of their RRC connection status; and transmitter circuitry to signal the partitioning of the plurality of periodic discovery zones; wherein the D2D circuitry is further configured to map discovery zone and hopping mechanisms to provide frequency diversity and to facilitate reception of the discovery message by a half-duplex UE . each of the plurality of periodic discovery zones includes a first plurality of resource blocks and a second plurality of subframes; the D2D circuitry is further configured to configure a User Equipment, UE , to utilize at least one of the plurality of periodic discovery zones for transmitting a discovery message; the plurality of periodic discovery zones are partitioned such that the plurality of periodic discovery zones comprise at least one non-contention based discovery zone that is available to D2D UE's in Radio Resource Control, RRC, connected mode with the eNB , and at least one contention based discovery zone that is available to all D2D UE's irrespective of their RRC connection status; and transmitter circuitry to signal the partitioning of the plurality of periodic discovery zones; wherein the D2D circuitry is further configured to map discovery zone and hopping mechanisms to provide frequency diversity and to facilitate reception of the discovery message by a half-duplex UE .
A method for determining a mass flow consisting of bulk material, in particular cereals, which is conveyed by means of a continuously circulating conveyor device having laminar conveyor elements from a lower bulk material receiving area to a higher bulk material delivery area , in which the bulk material delivered by the conveyor device is deflected in the direction of a measuring device by means of a guide surface disposed in the bulk material delivery area , whereupon the mass flow is determined by measuring a resultant force (F_G) exerted on a sensor surface of the measuring device , characterized in that at least two parameters which have an influence on the force measurement and which are independent of bulk material properties are compensated for, wherein a first parameter is the frictional forces transferred from the bulk material to the sensor surface , wherein the frictional forces are compensated for by a suitable disposition of the measuring device in which a resultant frictional force (F_R) acts in a direction perpendicular to the measurement direction of the measuring device , and a second parameter represents external influences which have a permanent or only temporary influence on the measurements of the respective forces exerted on the sensor surface by the bulk material flowing over the sensor surface, wherein the second parameter is an inclination of the measuring device , wherein the inclination of the measuring device is detected and compensated for.
A tufting tie anchor comprising a planar body having two side portions connected by a central portion , the side portions and central portion defining a pair of opposed through slots, each through slot extending radially from the central portion and being open ended, wherein the central portion has fastening means to hold an end of a tufting tie; wherein the fastening means comprises an elongate open cavity in the central portion of the planar body dimensioned to receive an end bar of the tufting tie, and one or more barbs located to hold the end bar within the cavity; or wherein the fastening means comprises an elongate open cavity in the central portion of the planar body, dimensioned to receive an end bar of the tufting tie, the elongate open cavity facing out from the planar body and being partially closed at each end by one or more flanges extending from a respective side portion thereby forming an effective opening to the cavity that is shorter than the length of the end bar of the tufting tie to be received in the cavity; or wherein the fastening means comprises a closeable hook .
A grille comprising: a sandwich structure , the structure comprising at least an acrylic layer ; one or more openings extending through the sandwich structure; and one or more LEDs arranged in the at least an acrylic layer, wherein the at least an acrylic layer is configured to conduct light emitted from the LEDs to the openings, thereby to illuminate the openings. a sandwich structure , the structure comprising at least an acrylic layer ; one or more openings extending through the sandwich structure; and one or more LEDs arranged in the at least an acrylic layer, wherein the at least an acrylic layer is configured to conduct light emitted from the LEDs to the openings, thereby to illuminate the openings.
Pneumatic vehicle tyre having a belt composed of two or more belt plies which have reinforcement members crossing one another at an angle, wherein the reinforcement members within each belt ply are arranged substantially parallel to and spaced apart from one another and are embedded in rubber material, wherein the belt has at least one first belt ply, the reinforcement members of which are formed by steel monofilaments of the reinforcement member class Ultra-Tensile (UT) with in each case a tensile strength of 3080 N/mm 2 to 4190 N/mm 2 , measured in accordance with ASTM D 2969, ASTM D 4975 and BISTA E6, wherein the steel monofilaments have a diameter D of 0.33 mm to 0.37 mm, characterized in that the steel monofilaments have a torsion value of approximately zero windings in the case of a length dimension of 200 times the diameter of the steel monofilament.