mhurhangee/ep-ind-claims huggingface dataset:
A rubber composition comprising: a rubber component containing from 90 to 100% by mass of at least one kind of diene rubber synthesized by solution polymerization and from 0 to 10% by mass of another kind of diene rubber; a silica having a n-hexadecyltrimethylammonium bromide (CTAB) adsorption specific surface area of 180 m 2 /g or more measured according to a method described in ASTM D3765-92; at least one silane coupling agent selected from a polysulfide compound and a thioester compound; and a vulcanization accelerator, the rubber composition after vulcanization having an average aggregated aggregate area (nm 2) of the silica of 1,700 or less, measurement method of average aggregated aggregate area: an upper surface of a specimen of the rubber composition after vulcanization is cut in a direction making an angle of 38° with respect to the upper surface of the specimen with an focused ion beam; then a smooth surface of the specimen formed by cutting is imaged with a scanning electron microscope at an acceleration voltage of 5 kV in a direction perpendicular to the smooth surface; the resulting image is converted to a binarized image of a rubber portion and a silica portion as a filler of the specimen by the Otsu's method; an aggregated aggregate area of the silica portion is obtained based on the resulting binarized image; and the average aggregated aggregate area of the silica portion is calculated in terms of number average (arithmetic average) per unit area (3 μm × 3 μm) from a total surface area of the silica portion and the number of aggregated aggregates, provided that in the calculation, a particle that is in contact with an edge of the image is not counted, and a particle of 20 pixels or less is assumed to be noise and is not counted. an upper surface of a specimen of the rubber composition after vulcanization is cut in a direction making an angle of 38° with respect to the upper surface of the specimen with an focused ion beam; then a smooth surface of the specimen formed by cutting is imaged with a scanning electron microscope at an acceleration voltage of 5 kV in a direction perpendicular to the smooth surface; the resulting image is converted to a binarized image of a rubber portion and a silica portion as a filler of the specimen by the Otsu's method; an aggregated aggregate area of the silica portion is obtained based on the resulting binarized image; and the average aggregated aggregate area of the silica portion is calculated in terms of number average (arithmetic average) per unit area (3 μm × 3 μm) from a total surface area of the silica portion and the number of aggregated aggregates, provided that in the calculation, a particle that is in contact with an edge of the image is not counted, and a particle of 20 pixels or less is assumed to be noise and is not counted.
Composition containing i) 15 - 95% by weight of an oxygen compound, ii) 5 - 75% by weight of a urea compound, iii) 0 - 50% by weight of an ionogenic compound and iv) 0 - 35% by weight of an organic solvent, wherein the oxygen compound comprises a molar mass from 70 to 600 g/mol and no urea group and is present according to the general formula, with R 1 in each case the same or different and represented by hydrogen and/or a branched or unbranched, saturated or unsaturated organic residue containing 1 to 16 carbon atoms, R 2 and R 3 the same or different and in each case represented independently of one another by a branched or unbranched, saturated or unsaturated organic residue containing 1 to 12 carbon atoms and, in fact, with the condition that R 1 and R 2, together with the grouping CO-N connecting R 1 and R 2, can jointly form a cycle with 4 to 10 ring atoms or R 2 and R 3, together with the N-atom connecting the R 2 and R 3, can jointly form a cycle with 4 to 7 ring atoms, wherein the totality of the residues R 1, R 2 and R 3 comprise a total of 4 to 40 carbon atoms, in total 1 to 8 heteroatoms from the group consisting of O and N, and in total 1 to 2 oxygen atoms linked via single bonds, which are present in ether, ester or hydroxy functions, the urea compound comprises a molar mass from 350 to 60000 g/mol and at least one urea group, the ionogenic compound contains a cationic and an anionic component and differs from the oxygen compound and from the urea compound and the organic solvent contains no urea group and no ionic group and comprises a maximum of two heteroatoms selected from the group consisting of nitrogen and oxygen. i) 15 - 95% by weight of an oxygen compound, ii) 5 - 75% by weight of a urea compound, iii) 0 - 50% by weight of an ionogenic compound and iv) 0 - 35% by weight of an organic solvent, R 1 in each case the same or different and represented by hydrogen and/or a branched or unbranched, saturated or unsaturated organic residue containing 1 to 16 carbon atoms, R 2 and R 3 the same or different and in each case represented independently of one another by a branched or unbranched, saturated or unsaturated organic residue containing 1 to 12 carbon atoms and, in fact, with the condition that R 1 and R 2, together with the grouping CO-N connecting R 1 and R 2, can jointly form a cycle with 4 to 10 ring atoms or R 2 and R 3, together with the N-atom connecting the R 2 and R 3, can jointly form a cycle with 4 to 7 ring atoms, wherein the totality of the residues R 1, R 2 and R 3 comprise a total of 4 to 40 carbon atoms, in total 1 to 8 heteroatoms from the group consisting of O and N, and in total 1 to 2 oxygen atoms linked via single bonds, which are present in ether, ester or hydroxy functions, the urea compound comprises a molar mass from 350 to 60000 g/mol and at least one urea group, the ionogenic compound contains a cationic and an anionic component and differs from the oxygen compound and from the urea compound and the organic solvent contains no urea group and no ionic group and comprises a maximum of two heteroatoms selected from the group consisting of nitrogen and oxygen.
A nacelle for use in a propulsion system, and comprising a fan ramp for use in a thrust reverser portion of the nacelle, the fan ramp extending circumferentially about an axial fan ramp centerline, the fan ramp comprising: a forward edge disposed proximate an aft end of a fan case, the fan case at least partially surrounding a fan section of a gas turbine engine; an aft edge disposed proximate a forward end of an array of cascades, the array of cascades being operable to permit a bypass airstream to pass there through during a thrust reversing operation; and a first blocker door pocket operable to receive a portion of a forward edge of a first blocker door included in the nacelle; characterised in that the fan ramp further comprises: a second blocker door pocket circumferentially spaced from the first blocker door pocket, the second blocker door pocket being operable to receive a portion of a forward edge of a second blocker door included in the nacelle. a forward edge disposed proximate an aft end of a fan case, the fan case at least partially surrounding a fan section of a gas turbine engine; an aft edge disposed proximate a forward end of an array of cascades, the array of cascades being operable to permit a bypass airstream to pass there through during a thrust reversing operation; and a first blocker door pocket operable to receive a portion of a forward edge of a first blocker door included in the nacelle; characterised in that the fan ramp further comprises: a second blocker door pocket circumferentially spaced from the first blocker door pocket, the second blocker door pocket being operable to receive a portion of a forward edge of a second blocker door included in the nacelle. a second blocker door pocket circumferentially spaced from the first blocker door pocket, the second blocker door pocket being operable to receive a portion of a forward edge of a second blocker door included in the nacelle.
Support element for a wind turbine component, the support element comprising an abutment part and a block, wherein said abutment part has a substantially planar surface that is adapted to abut a planar surface of the wind turbine component and where the abutment part comprises holes for fastening devices, e.g bolts, adapted to fasten the planar surface of the wind turbine component towards the essentially planar surface of the abutment part, wherein at least some of the holes are adapted for variable location of fastening devices, said variable location being obtained by providing an oblong opening in the abutment part and further by arranging said block slidable in the oblong opening, where a hole for the fastening device is provided in the block, characterized in that said hole in the block has an oblong shape allowing a bolt, when inserted through the hole, to be moved in a direction perpendicular to the sliding direction of the block; thus allowing some dislocation of the bolt in two perpendicular directions.
An automated small object sorting system for sorting individual objects based on presence or absence of an attribute, the system comprising: an automated object extraction assembly; a transfer funnel having a reception end for receiving one or more objects from the object extraction assembly; and an automated collection assembly disposed below the automated object extraction assembly and configured to selectively position one or more collection receptacles adjacent a disposition end of the transfer funnel to deposit the one or more objects into the one or more collection receptacles, characterized in that the automated object extraction assembly is configured for extracting the one or more objects from an object sorting tray and for placing the extracted one or more objects to the transfer funnel. an automated object extraction assembly; a transfer funnel having a reception end for receiving one or more objects from the object extraction assembly; and an automated collection assembly disposed below the automated object extraction assembly and configured to selectively position one or more collection receptacles adjacent a disposition end of the transfer funnel to deposit the one or more objects into the one or more collection receptacles, characterized in that the automated object extraction assembly is configured for extracting the one or more objects from an object sorting tray and for placing the extracted one or more objects to the transfer funnel.
Plug-in connector, having a contact carrier with at least one contact chamber into which a contact partner can be inserted and can be primarily locked, wherein a locking element is further provided, with which locking element the at least one contact partner can be secondarily locked in its contact chamber, wherein the locking element is in the form of a bolt which can be displaced relative to the contact carrier, wherein the bolt has, in accordance with the number of contact partners, one behind the other in the movement direction, a respective contact-securing element for the secondary locking and is designed such that it can move between a preliminary latching position and an end latching position on the contact carrier, wherein the bolt has a latching hook and the contact carrier has a stop which interacts with the latching hook, characterized in that the bolt has a cutout within which the latching hook is arranged by way of its free end.
A nanocomposite comprising from about 15 to about 70 weight percent of silica nanoparticles, and a dispersant dispersed in a curable resin; wherein the silica nanoparticles comprise nonspherical silica nanoparticles, spherical pyrogenic silica nanoparticles, or a combination thereof, and wherein the nanocomposite contains less than 2% by weight solvent, and wherein the nonspherical silica nanoparticles comprise a population of clusters of primary spherical silica nanoparticles, the population of clusters having a mean size in the range of from 40 to 900 nanometers, and the primary spherical silica nanoparticles having a diameter in the range of from 1 to 100 nanometer wherein the mean particle size is measured according to the method disclosed in the paragraph "Particle Size Test Method" of the description.
A rodent whose genome comprises: (a) a lambda light chain comprising only one human Ig light chain lambda V region and one or more human Ig light chain lambda J regions upstream of a host rodent lambda constant region; and (b) a plurality of human IgH V regions, one or more human D regions and one or more human J regions upstream of the host rodent constant region, wherein the rodent is able to produce a repertoire of chimaeric antibodies, or chimaeric lambda light chains or chimaeric heavy chains, having a rodent constant region and a human variable region; and the host rodent lambda light chain constant region is an endogenous host wild-type lambda light chain constant region located at the wild type lambda light chain locus. (a) a lambda light chain comprising only one human Ig light chain lambda V region and one or more human Ig light chain lambda J regions upstream of a host rodent lambda constant region; and (b) a plurality of human IgH V regions, one or more human D regions and one or more human J regions upstream of the host rodent constant region, wherein the rodent is able to produce a repertoire of chimaeric antibodies, or chimaeric lambda light chains or chimaeric heavy chains, having a rodent constant region and a human variable region; and the host rodent lambda light chain constant region is an endogenous host wild-type lambda light chain constant region located at the wild type lambda light chain locus.
Vehicle exterior mirror comprising integrated signal light unit, having a housing shell composed of thermoplastic material, wherein the housing shell has a light-permeable window portion and comprises an interior space for receiving the signal light unit in the region of the light-permeable window portion, wherein the signal light unit has a longitudinal light guiding body and a number of assigned illuminants for illumination of an input coupling portion of the assigned illuminant, wherein the signal light unit furthermore has a housing composed of thermoplastic material, said housing predefining an interior space for receiving at least one circuit board and the number of illuminants, wherein the housing is of two-part design and comprises two housing half-shells (11a, 11b), and wherein the housing furthermore has a passage opening, and the light guiding body is releasably retained in the passage opening by way of a first end region having the input coupling portion, characterized in that the two housing half-shells (11a, 11b) are connected by means of a hinge arrangement and are embodied to be closable and openable by means of a clip connection, wherein the housing halves (11a, 11b) are provided with a seal in the region of the mutually facing joining edges and wherein the passage opening is provided with a seal, and wherein the housing and the seals (20,-) are produced by a two-component injection-moulding process and the housing half-shells (11a, 11b) are made of a polypropylene and the seals of the joining edges and the seal in the region of the through-opening are made of a thermoplastic elastomer.
A solar cell comprising: a semiconductor substrate; a conductive region disposed in or on the semiconductor substrate; and an electrode comprising a plurality of finger lines connected to the conductive region, and formed to extend in a first direction while being parallel, and 6 or more bus bar lines formed to extend in a second direction crossing the first direction, characterized in that each of the bus bar lines has a width of 35 to 350μm at at least a portion thereof, wherein each of the bus bar lines has a distance between opposite ends thereof in the second direction smaller than a distance between outermost ones of the finger lines respectively disposed at opposite sides of the semiconductor substrate in the second direction. a semiconductor substrate; a conductive region disposed in or on the semiconductor substrate; and an electrode comprising a plurality of finger lines connected to the conductive region, and formed to extend in a first direction while being parallel, and 6 or more bus bar lines formed to extend in a second direction crossing the first direction,
A cradle comprising: a cradle body having a push button; a pair of holding arms (12, 13) arranged to face each other; first elastic members disposed in the cradle body and arranged to provide a force, when compressed, to each of the holding arms (12, 13) of the pair of holding arms (12, 13); and a driver disposed in the cradle body in interaction with the pair of holding arms for moving the holding arms; wherein the pair of holding arms (12, 13) are arranged to: move away from each other while the push button is being pressed; and move toward each other while applying pressure to the holding arms to accommodate a portable body mounted on the cradle body. a cradle body having a push button; a pair of holding arms (12, 13) arranged to face each other; first elastic members disposed in the cradle body and arranged to provide a force, when compressed, to each of the holding arms (12, 13) of the pair of holding arms (12, 13); and a driver disposed in the cradle body in interaction with the pair of holding arms for moving the holding arms; wherein the pair of holding arms (12, 13) are arranged to: move away from each other while the push button is being pressed; and move toward each other while applying pressure to the holding arms to accommodate a portable body mounted on the cradle body. move away from each other while the push button is being pressed; and move toward each other while applying pressure to the holding arms to accommodate a portable body mounted on the cradle body.
A method for performing uplink transmission, the method performed by a wireless communication device and comprising: receiving Physical Uplink Control Channel, PUCCH, configuration information for each of a plurality of PUCCH resources, wherein the PUCCH configuration information indicates whether frequency hopping is enabled or disabled for each PUCCH resource, wherein each PUCCH resource is associated with a respective one of a plurality of PUCCH formats, and wherein each PUCCH resource is associated with a respective PUCCH resource index; determining, for a PUCCH resource among the plurality of PUCCH resources, whether frequency hopping is enabled or disabled for the PUCCH resource, based on the PUCCH configuration information for the PUCCH resource; based on frequency hopping being enabled for the PUCCH resource, transmitting a PUCCH signal on the PUCCH resource with frequency hopping; and based on frequency hopping being disabled for the PUCCH resource, transmitting the PUCCH signal on the PUCCH resource without frequency hopping. receiving Physical Uplink Control Channel, PUCCH, configuration information for each of a plurality of PUCCH resources, wherein the PUCCH configuration information indicates whether frequency hopping is enabled or disabled for each PUCCH resource, wherein each PUCCH resource is associated with a respective one of a plurality of PUCCH formats, and wherein each PUCCH resource is associated with a respective PUCCH resource index; determining, for a PUCCH resource among the plurality of PUCCH resources, whether frequency hopping is enabled or disabled for the PUCCH resource, based on the PUCCH configuration information for the PUCCH resource; based on frequency hopping being enabled for the PUCCH resource, transmitting a PUCCH signal on the PUCCH resource with frequency hopping; and based on frequency hopping being disabled for the PUCCH resource, transmitting the PUCCH signal on the PUCCH resource without frequency hopping.
A continuously variable transmission system for a hybrid vehicle, comprising: a belt-type continuously variable transmission adapted to receive torque from more than one power sources (106, 108, 126), wherein said belt-type continuously variable transmission comprises a plurality of pulley sets (132, 134, 136), said pulley sets (132, 134, 136) operatively connected by means of a belt extending over width-variable grooves defined between halves of said pulley sets (132, 134, 136), said belt being held in position by means of belt tightener (150a, 150b, 150c); characterized in more than one pulley sets (132, 134) being adapted to act as drive pulleys for independently receiving torque from more than one power sources (106, 108, 126), and at least one pulley set being adapted to act as driven pulley for receiving the torque from said drive pulleys (132, 134) and transmitting said torque to set of drive wheels for running the vehicle, thereby said belt-type continuously variable transmission being adapted to be driven by means of torque received from one or more of said power sources (106, 108, 126), and said belt-type continuously variable transmission being adapted to provide power from at least one of said power sources (106, 108, 126) across said driven pulley.
A channel state information, CSI, request method performed by a base station, comprising: identifying state related information, wherein a relationship between at least one downlink, DL, component carrier, CC, and aperiodic CSI request is predefined based on one state of the state related information; transmitting the state related information to a terminal through RRC signaling; setting a field for an aperiodic CSI request in an uplink, UL, grant to a value, wherein the value is associated with at least one DL CC for aperiodic CSI request based on the state related information; transmitting the UL grant to the terminal on a DL CC linked to an UL CC; and receiving at least one aperiodic CSI corresponding to the at least one DL CC for aperiodic CSI request, on the UL CC linked to the DL CC on which the UL grant is transmitted. identifying state related information, wherein a relationship between at least one downlink, DL, component carrier, CC, and aperiodic CSI request is predefined based on one state of the state related information; transmitting the state related information to a terminal through RRC signaling; setting a field for an aperiodic CSI request in an uplink, UL, grant to a value, wherein the value is associated with at least one DL CC for aperiodic CSI request based on the state related information; transmitting the UL grant to the terminal on a DL CC linked to an UL CC; and receiving at least one aperiodic CSI corresponding to the at least one DL CC for aperiodic CSI request, on the UL CC linked to the DL CC on which the UL grant is transmitted.
A method for operating a fuel cell system of a motor vehicle, the fuel cell system comprising at least one fuel cell, wherein a water circuit including a heat exchanger and a water reservoir are allocated to the fuel cell system, wherein a coolant circuit including a transport device for transporting a coolant that is fed to the heat exchanger of the water circuit is allocated to the motor vehicle, the method comprising condensing, using the heat exchanger, water from cathode waste gas of the at least one fuel cell and storing water from cathode waste gas in the water reservoir, and cooling the at least one fuel cell with water from the water reservoir, characterized by activating the transport device of the coolant circuit depending on a level of water in the water reservoir.
A passivation layer structure of a semiconductor device being disposed on a semiconductor substrate, comprising: a passivation layer structure disposed on the semiconductor substrate, characterized in that the passivation layer structure comprises a halogen-doped aluminum oxide layer and the semiconductor substrate is a p-type semiconductor layer. a passivation layer structure disposed on the semiconductor substrate, characterized in that the passivation layer structure comprises a halogen-doped aluminum oxide layer and the semiconductor substrate is a p-type semiconductor layer.