mhurhangee/ep-ind-claims huggingface dataset:
An ophthalmic lens comprising: a far optical zone capable of providing far vision, a horizontal width of the far optical zone measured across the widest portion of the far optical zone being between 30 mm and 70 mm, the far zone having a residual cylinder power less than 0.25 Diopter; a near optical zone capable of providing near vision wherein the near optical zone has a centroid of the area in the near optical zone in which an addition power is not less than a maximum addition power minus 0.25 Diopter and wherein a horizontal width through the centroid of the near optical zone where the addition power is not less than the maximum addition value minus 0.25 Diopter is between 12 mm and 24 mm; and a corridor connecting the far optical zone and the near optical zone, the corridor including an area having a residual cylinder power or aberrations less than or equal to 0.5 Diopter, two peripheral zones (109a, 109b) disposed on either side of the corridor, wherein a length of the corridor measured between a first point proximal to the far optical zone and a second point proximal to the near optical zone is between 4 mm and 8 mm, wherein the first point has an addition power of 0.1 Diopter, and wherein the second point has an addition power equal to a maximum addition power minus 0.1 Diopter, wherein the peripheral zones have a residual cylinder power that is greater than 2.0 Diopter. a far optical zone capable of providing far vision, a horizontal width of the far optical zone measured across the widest portion of the far optical zone being between 30 mm and 70 mm, the far zone having a residual cylinder power less than 0.25 Diopter; a near optical zone capable of providing near vision wherein the near optical zone has a centroid of the area in the near optical zone in which an addition power is not less than a maximum addition power minus 0.25 Diopter and wherein a horizontal width through the centroid of the near optical zone where the addition power is not less than the maximum addition value minus 0.25 Diopter is between 12 mm and 24 mm; and a corridor connecting the far optical zone and the near optical zone, the corridor including an area having a residual cylinder power or aberrations less than or equal to 0.5 Diopter, two peripheral zones (109a, 109b) disposed on either side of the corridor, wherein a length of the corridor measured between a first point proximal to the far optical zone and a second point proximal to the near optical zone is between 4 mm and 8 mm, wherein the first point has an addition power of 0.1 Diopter, and wherein the second point has an addition power equal to a maximum addition power minus 0.1 Diopter, wherein the peripheral zones have a residual cylinder power that is greater than 2.0 Diopter.
A method for converting biomass to liquid fuels and cyanobacteria based biofertilizer, comprising the steps of: a. directly liquefying a biomass feed by hydroprocessing said feed under conditions and for a time sufficient for producing hydrocarbon liquids; b. upgrading hydrocarbon liquids produced by step a to produce liquid fuels and/or chemical feedstocks, and byproduct ammonia; c. producing structured biochar having an average pore size in the range of 20-400 Angstroms and byproduct CO 2 by microwave pyrolysis of biomass residues produced in step a; d. producing cyanobacteria in a photobioreactor with the use of byproduct CO 2 produced by one or both of said direct liquefaction and biochar producing steps and byproduct ammonia produced in step b; and e. producing a biofertilizer incorporating biochar and cyanobacteria produced in steps c. and d. a. directly liquefying a biomass feed by hydroprocessing said feed under conditions and for a time sufficient for producing hydrocarbon liquids; b. upgrading hydrocarbon liquids produced by step a to produce liquid fuels and/or chemical feedstocks, and byproduct ammonia; c. producing structured biochar having an average pore size in the range of 20-400 Angstroms and byproduct CO 2 by microwave pyrolysis of biomass residues produced in step a; d. producing cyanobacteria in a photobioreactor with the use of byproduct CO 2 produced by one or both of said direct liquefaction and biochar producing steps and byproduct ammonia produced in step b; and e. producing a biofertilizer incorporating biochar and cyanobacteria produced in steps c. and d.
A three-dimensional data encoding method for encoding point cloud data including a plurality of three-dimensional points, characterized by: encoding a plurality of divided data items to generate a plurality of encoded data items each corresponding to a respective one of the plurality of divided data items, each of a plurality of subspaces including one or more of the plurality of divided data items, the plurality of subspaces being obtained by dividing a current space including the plurality of three-dimensional points, the plurality of divided data items each including one or more three-dimensional points among the plurality of three-dimensional points, and each of the plurality of divided data items including geometry information and attribute information of each of the one or more three-dimensional points; and generating a bitstream, the bitstream including the plurality of encoded data items and a plurality of control information items each corresponding to a respective one of the plurality of encoded data items, wherein each of the plurality of control information items includes a first identifier and a second identifier, the first identifier indicating a subspace corresponding to an encoded data item corresponding to the control information item among the plurality of subspaces, the second identifier indicating a divided data item corresponding to the encoded data item corresponding to the control information item among the plurality of divided data items. encoding a plurality of divided data items to generate a plurality of encoded data items each corresponding to a respective one of the plurality of divided data items, each of a plurality of subspaces including one or more of the plurality of divided data items, the plurality of subspaces being obtained by dividing a current space including the plurality of three-dimensional points, the plurality of divided data items each including one or more three-dimensional points among the plurality of three-dimensional points, and each of the plurality of divided data items including geometry information and attribute information of each of the one or more three-dimensional points; and generating a bitstream, the bitstream including the plurality of encoded data items and a plurality of control information items each corresponding to a respective one of the plurality of encoded data items, wherein each of the plurality of control information items includes a first identifier and a second identifier, the first identifier indicating a subspace corresponding to an encoded data item corresponding to the control information item among the plurality of subspaces, the second identifier indicating a divided data item corresponding to the encoded data item corresponding to the control information item among the plurality of divided data items.
A beam processing method, comprising: uniformly numbering, by a base station, different beams of different transceiving links to obtain beam-cell identities IDs; and generating synchronization signals and reference signals using the beam-cell IDs, wherein the synchronization signals or reference signals of different beams are staggered in positions on time-frequency resources to generate high frequency subframes; wherein each of the beam-cell IDs is obtained by adding a physical cell identity ID and a beam identity ID, or by performing linear function mapping on a linear function, with the physical cell ID and the beam ID as parameters of the linear function. uniformly numbering, by a base station, different beams of different transceiving links to obtain beam-cell identities IDs; and generating synchronization signals and reference signals using the beam-cell IDs, wherein the synchronization signals or reference signals of different beams are staggered in positions on time-frequency resources to generate high frequency subframes; wherein each of the beam-cell IDs is obtained by adding a physical cell identity ID and a beam identity ID, or by performing linear function mapping on a linear function, with the physical cell ID and the beam ID as parameters of the linear function.
Device for holding a bait, in particular a bait for rodents, characterized by: - a housing part, the housing part having at least one, in particular axial, passage opening, through which access is possible into an interior space on the housing part side, - at least one closing body, which has a base body and at least one bait-receiving region, in particular on the base-body side, for receiving at least one bait, the closing body being mounted movably relative to the housing part, the closing body being moved away from the housing part in an open position in such a manner that the at least one passage opening is uncovered and access to the interior space on the housing part side is possible, and in a closed position is moved against the housing part in such a way that the at least one passage opening is closed and access to the interior space on the housing part side is not possible, wherein - the base body of the closing body comprises a bearing section, which is connected thereto via at least one connecting web and is spaced apart from the base body, for mounting the closing body on the housing part, characterized in that in the closed position of the closing body, entering of water into the housing part is not possible. - a housing part, the housing part having at least one, in particular axial, passage opening, through which access is possible into an interior space on the housing part side, - at least one closing body, which has a base body and at least one bait-receiving region, in particular on the base-body side, for receiving at least one bait, the closing body being mounted movably relative to the housing part, the closing body being moved away from the housing part in an open position in such a manner that the at least one passage opening is uncovered and access to the interior space on the housing part side is possible, and in a closed position is moved against the housing part in such a way that the at least one passage opening is closed and access to the interior space on the housing part side is not possible, wherein - the base body of the closing body comprises a bearing section, which is connected thereto via at least one connecting web and is spaced apart from the base body, for mounting the closing body on the housing part, characterized in that
An integrated circuit comprising circuitry which, in operation, controls a process of a base station for performing a random access procedure in a communication system, the process comprising: receiving (901, 1002) a random access preamble from a user equipment, transmitting (902, 1003) a random access response message to the user equipment in response to receiving the random access preamble, characterized in that the random access response message comprises a grant of resources to the user equipment for a scheduled uplink transmission, and a field indicating how many times a same transport block is to be repeatedly received from the user equipment on the granted resources for the scheduled uplink transmission in consecutive subframes without waiting for a Hybrid Automatic-Repeat Request, HARQ feedback from the base station. receiving (901, 1002) a random access preamble from a user equipment, transmitting (902, 1003) a random access response message to the user equipment in response to receiving the random access preamble, characterized in that the random access response message comprises a grant of resources to the user equipment for a scheduled uplink transmission, and a field indicating how many times a same transport block is to be repeatedly received from the user equipment on the granted resources for the scheduled uplink transmission in consecutive subframes without waiting for a Hybrid Automatic-Repeat Request, HARQ feedback from the base station.
A container comprising a container body with an outer surface and an inner surface, wherein - the inner surface contains silicon oxide; and - the silicon oxide containing inner surface is at least partially modified with a fluorine containing compound, wherein the fluorine containing compound is chemically bonded to the silicon oxide of the container body via at least one Si-O-Si bond; wherein the fluorine containing compound is an alkoxysilane compound, said alkoxysilane compound having a structure as follows: wherein ORe represents an alkoxy group, and wherein the backbone comprises a fluorine containing entity; wherein the alkoxysilane compound has at least one of the following features: - the backbone comprises a perfluoropolyether; - the backbone comprises at least one (CF 2) 3 chain; - the backbone comprises a plurality of (CF 2) x entities, for all of which x < 8 is met; - the backbone comprises [(CF 2) x O] n, with 3 < n < 1000, preferably 4 < n < 200, more preferably 5 < n < 100; - the backbone comprises further branches in the form of linear and/or branched and/or cyclic structures; - the alkoxysilane compound comprises at least one CF 3 end group; and - the linker comprises at least one hydrolyzable group, and/or an amino group, and/or a carboxamide group -OC-NH-, and/or at least one further silane group, and/or an acrylate or methacrylate group; wherein the linker crosslinks two or more adjacent alkoxysilane molecules to each other. - the inner surface contains silicon oxide; and - the silicon oxide containing inner surface is at least partially modified with a fluorine containing compound, wherein the fluorine containing compound is chemically bonded to the silicon oxide of the container body via at least one Si-O-Si bond; - the backbone comprises a perfluoropolyether; - the backbone comprises at least one (CF 2) 3 chain; - the backbone comprises a plurality of (CF 2) x entities, for all of which x < 8 is met; - the backbone comprises [(CF 2) x O] n, with 3 < n < 1000, preferably 4 < n < 200, more preferably 5 < n < 100; - the backbone comprises further branches in the form of linear and/or branched and/or cyclic structures; - the alkoxysilane compound comprises at least one CF 3 end group; and - the linker comprises at least one hydrolyzable group, and/or an amino group, and/or a carboxamide group -OC-NH-, and/or at least one further silane group, and/or an acrylate or methacrylate group; wherein the linker crosslinks two or more adjacent alkoxysilane molecules to each other.
An article of headwear configured to be worn on a head of a wearer comprising: a crown that is configured for covering a portion of the head; and a bill that defines an inner edge that is operably coupled to the crown, the bill also projecting away from the crown and terminating at an outer edge, the bill including a stiffener (50', 50", 50"') that extends along and that stiffens the outer edge, the stiffener (50', 50", 50"') having a first longitudinal end that is adjacent the inner edge, a second longitudinal end that is adjacent the inner edge, an intermediate portion that is disposed between the first longitudinal end and the second longitudinal end, a top side, and a bottom side, a cross section of the stiffener (50', 50", 50'") being substantially constant in the intermediate portion between the first and second longitudinal ends (64, 66), and at least one of the top and bottom sides (56, 58) being substantially flat in the cross section of the stiffener (50', 50", 50'"), characterized in that the stiffener (50', 50", 50"') includes a first zone and a second zone, the stiffener (50', 50", 50"') is molded, as such, the first zone and the second zone are integrally attached such that the stiffener (50', 50", 50'") is monolithic, and the first zone and the second zone have at least one of a different durometer, and a different density. a crown that is configured for covering a portion of the head; and a bill that defines an inner edge that is operably coupled to the crown, the bill also projecting away from the crown and terminating at an outer edge, the bill including a stiffener (50', 50", 50"') that extends along and that stiffens the outer edge, the stiffener (50', 50", 50"') having a first longitudinal end that is adjacent the inner edge, a second longitudinal end that is adjacent the inner edge, an intermediate portion that is disposed between the first longitudinal end and the second longitudinal end, a top side, and a bottom side, a cross section of the stiffener (50', 50", 50'") being substantially constant in the intermediate portion between the first and second longitudinal ends (64, 66), and at least one of the top and bottom sides (56, 58) being substantially flat in the cross section of the stiffener (50', 50", 50'"), characterized in that the stiffener (50', 50", 50"') includes a first zone and a second zone, the stiffener (50', 50", 50"') is molded, as such, the first zone and the second zone are integrally attached such that the stiffener (50', 50", 50'") is monolithic, and the first zone and the second zone have at least one of a different durometer, and a different density.
A laundry machine comprising a cabinet housing a chamber for treating laundry having a rotation axis, a porthole for providing access to and tightly closing the chamber, a hinge to pivot the porthole to the cabinet, an electromechanical lock comprising a first member on the porthole and a matching member on the cabinet, and a grip-only handle (15, 15a, 15b, 15c) provided at the porthole and configured to be gripped by a user, wherein said porthole comprises at least one frame (30, 30a, 31) and a glass secured to the at least one frame (30, 30a, 31), wherein said electromechanical lock is configured to be released by applying a force beyond a threshold onto the porthole away from the cabinet, characterized in that said grip-only handle (15, 15a, 15b, 15c) and said first member of said electromechanical lock are arranged in such a way that, when the porthole is closed, a center of mass (C15, C15a, C15b, C15c) of said grip-only handle (15, 15a, 15b, 15c) and a center of mass of said first member of said electromechanical lock are located, with respect to the rotation axis, at different angular positions.
Installation means for installing a cover holder so as to be adjustable in height and in inclination in order to keep a carriageway cover on top of an inspection shaft of an inspection manhole, comprising at least three threaded rods for adjusting the height and the inclination of the cover holder with respect to the inspection shaft, wherein the installation means are adapted to arrange the threaded rods so as to be adjustable in height with respect to the inspection shaft and fixed in height under the cover holder, in order to allow the cover holder to rest on top of a first end of the threaded rods, wherein said installation means comprise a nut for each threaded rod which is rotatably fittable on the corresponding threaded rod, and comprise at least one slide-blocking element (9, 10) for each threaded rod in order to prevent the nut from sliding with respect to the threaded rod, said installation means being characterized by further comprising at least one rotation-blocking element for each threaded rod to prevent the threaded rod from rotating.
Use of a method comprising the steps: a) introducing a primary material comprising an alloy comprising aluminium and scandium into a vacuum chamber, wherein the primary material is an AlMgMnScZr alloy consisting of 4.3 weight-% magnesium, 0.7 weight-% scandium, 0.3 weight-% zircon and 0.5 weight-% manganese, each relative to the overall weight of the alloy, wherein the content of contaminants of the overall weight of the alloy lies under 0.5 weight-%, the remainder being aluminium, b) vacuum degassing the primary material under a vacuum of 0.1 to 10 -8 mbar and a temperature from 275 to 400°C over a period of 15 to 30 min, c) gassing the primary material with nitrogen over a period of 1 to 30 min, wherein the nitrogen contains a water content of less than 1000 ppm, and d) subjecting the primary material to final vacuum degassing under a vacuum of 0.1 to 10 -8 mbar and a temperature from 275 to 400°C over a period of 15 to 30 min, for producing a high temperature-loadable aluminium material alloyed with scandium, wherein the method comprises another, additional step (e) in which the primary material is compacted in the vacuum chamber immediately after step (d). a) introducing a primary material comprising an alloy comprising aluminium and scandium into a vacuum chamber, wherein the primary material is an AlMgMnScZr alloy consisting of 4.3 weight-% magnesium, 0.7 weight-% scandium, 0.3 weight-% zircon and 0.5 weight-% manganese, each relative to the overall weight of the alloy, wherein the content of contaminants of the overall weight of the alloy lies under 0.5 weight-%, the remainder being aluminium, b) vacuum degassing the primary material under a vacuum of 0.1 to 10 -8 mbar and a temperature from 275 to 400°C over a period of 15 to 30 min, c) gassing the primary material with nitrogen over a period of 1 to 30 min, wherein the nitrogen contains a water content of less than 1000 ppm, and d) subjecting the primary material to final vacuum degassing under a vacuum of 0.1 to 10 -8 mbar and a temperature from 275 to 400°C over a period of 15 to 30 min,
A method for memory initialization at a field-programmable gate array, FPGA,, configured to emulate a behavior of a circuitry, said circuitry being an application-specific integrated circuit, ASIC, the method comprising: identifying a portion of the FPGA configured as a first memory device; detecting a start of a power-off state for a power domain within the FPGA including the first memory device; selectively decoupling the first memory device from a first logic block via a first memory initialization unit wherein the decoupling includes configuring one or more circuit components to forward write operation related signals that are generated by memory initialization unit instead of the corresponding write operation related signals generated by the logic block; performing a write operation to write data of a pre-determined pattern to the first memory device upon detecting the start of the power-off state; and providing the data stored at the first memory device for a reading operation after re-coupling the first memory device with the first logic block after performing the write operation when the power-off state ends. identifying a portion of the FPGA configured as a first memory device; detecting a start of a power-off state for a power domain within the FPGA including the first memory device; selectively decoupling the first memory device from a first logic block via a first memory initialization unit wherein the decoupling includes configuring one or more circuit components to forward write operation related signals that are generated by memory initialization unit instead of the corresponding write operation related signals generated by the logic block; performing a write operation to write data of a pre-determined pattern to the first memory device upon detecting the start of the power-off state; and providing the data stored at the first memory device for a reading operation after re-coupling the first memory device with the first logic block after performing the write operation when the power-off state ends.