mhurhangee/ep-ind-claims huggingface dataset:
A method for customizing an automated bonding sequence, the method comprising: detecting, by a processor of a computing system, that a first substrate is in close proximity with a second substrate, during an optical bonding operation such that an adhesive on the first substrate is not yet in contact with at least one of: the second substrate and an adhesive on the second substrate; stopping, by the processor, an automated process of optically bonding of the optical bonding operation, in response to the detecting; recording, by the processor, operator feedback control signals, the operator feedback control signals being received from a controller being operated by an operator to contact the first substrate and the second substrate; analyzing, by the processor, the operator feedback control signals to determine a bonding sequence for automatically optically bonding the first substrate and the second substrate; and resuming, by the processor, the automated process of the optical bonding operation. detecting, by a processor of a computing system, that a first substrate is in close proximity with a second substrate, during an optical bonding operation such that an adhesive on the first substrate is not yet in contact with at least one of: the second substrate and an adhesive on the second substrate; stopping, by the processor, an automated process of optically bonding of the optical bonding operation, in response to the detecting; recording, by the processor, operator feedback control signals, the operator feedback control signals being received from a controller being operated by an operator to contact the first substrate and the second substrate; analyzing, by the processor, the operator feedback control signals to determine a bonding sequence for automatically optically bonding the first substrate and the second substrate; and resuming, by the processor, the automated process of the optical bonding operation.
An apparatus for monitoring a performance of an Ethernet data stream, EDS, said apparatus comprising: an evaluation unit adapted to evaluate sync headers and block type fields of line code vectors of the Ethernet data stream, EDS; and a counter unit adapted to increment at least three performance counters in response to the evaluated sync header and the evaluated block type field of each line code vector of the Ethernet data stream, EDS, wherein the at least three performance counters of said counter unit comprise - a n2b-block counter adapted to count the number of received line code vectors having an admissible sync header within the Ethernet data stream, EDS; and - a data octet counter adapted to count the number of data octets within the line code vectors of the Ethernet data stream, EDS; and - a frame counter adapted to count the number of frames within the Ethernet data stream, EDS; and/or - a frame-size counter adapted to count the frame size of each frame within the Ethernet data stream, EDS, wherein the apparatus further comprises a performance processing unit adapted to process counter values of the at least three performance counters of said counter unit to calculate performance parameters of the monitored Ethernet data stream, EDS, wherein the performance processing unit is adapted to calculate at least one utilization performance parameter, UP, of the monitored Ethernet data stream, EDS, depending on counter values of performance counters of said counter unit, wherein the utilization performance parameter, UP, of the Ethernet data stream, EDS, is calculated by said performance processing unit of said apparatus as follows: UP = OCV + 12 ∗ FCV BCV ∗ 8 ∗ 100 %, wherein OCV is the octet counter value of the data octet counter of said counter unit, FCV is the frame counter value of the frame counter of said counter unit, and BCV is a block counter value of the n2b-block counter of said counter unit. an evaluation unit adapted to evaluate sync headers and block type fields of line code vectors of the Ethernet data stream, EDS; and a counter unit adapted to increment at least three performance counters in response to the evaluated sync header and the evaluated block type field of each line code vector of the Ethernet data stream, EDS, - a n2b-block counter adapted to count the number of received line code vectors having an admissible sync header within the Ethernet data stream, EDS; and - a data octet counter adapted to count the number of data octets within the line code vectors of the Ethernet data stream, EDS; and - a frame counter adapted to count the number of frames within the Ethernet data stream, EDS; and/or - a frame-size counter adapted to count the frame size of each frame within the Ethernet data stream, EDS, OCV is the octet counter value of the data octet counter of said counter unit, FCV is the frame counter value of the frame counter of said counter unit, and BCV is a block counter value of the n2b-block counter of said counter unit.
A chemically curable, aqueous two-component adhesive formulation for producing pressed material molded bodies, in particular pressed material plates, by continuously or discontinuously pressing mixtures of the adhesive formulation and chip material and/or fiber material, or by pressing layerings of the adhesive formulation and chip material plates and/or fiber material plates, comprising - a first aqueous component A comprising at least one chemically curable reactive resin - and a second aqueous component B comprising at least one curing agent for the chemically curable reactive resin of component A, wherein components A and B are provided for forming the chemically curable two-component adhesive formulation by mixing components A and B, wherein component A comprises 20 wt. % to 100 wt.% of an aqueous phase of a reactive resin functionalized with functional epoxy groups or a mixture of reactive resins functionalized with functional epoxy groups, with a resin content of 30 wt.% to 70 wt.%, and wherein component B comprises 30 wt.% to 100 wt.% of an aqueous phase of a curing agent having functional amine groups or a mixture of curing agents having functional amine groups, with a curing agent content of 30 wt.% to 70 wt.%, wherein the aqueous two-component adhesive formulation consists of 20 wt.% to 80 wt.% of component A and 20 wt.% to 80 wt.% of component B, characterized in that the aqueous phase of the reactive resin functionalized with functional epoxy groups or the mixture of reactive resins functionalized with functional epoxy groups of component A has an epoxy equivalent weight of 200 g/mol to 1500 g/mol. - a first aqueous component A comprising at least one chemically curable reactive resin - and a second aqueous component B comprising at least one curing agent for the chemically curable reactive resin of component A, wherein components A and B are provided for forming the chemically curable two-component adhesive formulation by mixing components A and B, wherein component A comprises 20 wt. % to 100 wt.% of an aqueous phase of a reactive resin functionalized with functional epoxy groups or a mixture of reactive resins functionalized with functional epoxy groups, with a resin content of 30 wt.% to 70 wt.%, and wherein component B comprises 30 wt.% to 100 wt.% of an aqueous phase of a curing agent having functional amine groups or a mixture of curing agents having functional amine groups, with a curing agent content of 30 wt.% to 70 wt.%, wherein the aqueous two-component adhesive formulation consists of 20 wt.% to 80 wt.% of component A and 20 wt.% to 80 wt.% of component B, characterized in that the aqueous phase of the reactive resin functionalized with functional epoxy groups or the mixture of reactive resins functionalized with functional epoxy groups of component A has an epoxy equivalent weight of 200 g/mol to 1500 g/mol.
A transport refrigeration unit comprising: a refrigeration cycle having a refrigerant routed therethrough, the refrigeration cycle including a compressor, a condenser, an evaporator, an expansion valve and a controller; an engine operatively coupled to a generator to power the compressor; an inlet structure receiving an inlet air stream for routing to the engine; and a cooling coil arrangement disposed within the inlet structure, the refrigerant of the refrigeration cycle selectively routed through the cooling coil arrangement to cool the inlet air stream; wherein the refrigerant is separated into a first stream and a second stream upstream of an evaporator inlet, the first stream routed to the evaporator and the second stream routed to the inlet structure; characterised in that the ratio of the first stream to the second stream is selectively determined by operation of an inlet coil modulation valve disposed upstream of the inlet structure. a refrigeration cycle having a refrigerant routed therethrough, the refrigeration cycle including a compressor, a condenser, an evaporator, an expansion valve and a controller; an engine operatively coupled to a generator to power the compressor; an inlet structure receiving an inlet air stream for routing to the engine; and a cooling coil arrangement disposed within the inlet structure, the refrigerant of the refrigeration cycle selectively routed through the cooling coil arrangement to cool the inlet air stream; wherein the refrigerant is separated into a first stream and a second stream upstream of an evaporator inlet, the first stream routed to the evaporator and the second stream routed to the inlet structure; characterised in that the ratio of the first stream to the second stream is selectively determined by operation of an inlet coil modulation valve disposed upstream of the inlet structure.
A subsea riser support buoy comprising: a positively buoyant riser support member and a positively buoyant jumper support member that extend generally parallel to each other and that define a lengthwise direction extending between them across the buoy, the riser support member and the jumper support member being spaced apart from each other in the lengthwise direction; side members that extend in the lengthwise direction at ends of the riser support member and the jumper support member to join the riser support member and the jumper support member; and pontoons of negative or neutral buoyancy that extend lengthwise from opposed ends of each side member and beyond the positive buoyancy of the riser support member and the jumper support member, the pontoons comprising attachment points for connecting tethers (18; 72) to the buoy. a positively buoyant riser support member and a positively buoyant jumper support member that extend generally parallel to each other and that define a lengthwise direction extending between them across the buoy, the riser support member and the jumper support member being spaced apart from each other in the lengthwise direction; side members that extend in the lengthwise direction at ends of the riser support member and the jumper support member to join the riser support member and the jumper support member; and pontoons of negative or neutral buoyancy that extend lengthwise from opposed ends of each side member and beyond the positive buoyancy of the riser support member and the jumper support member, the pontoons comprising attachment points for connecting tethers (18; 72) to the buoy.
Distributed support structure for a wind turbine, in particular a lattice tower structure for a wind turbine, in particular a foundation structure for a wind turbine, in particular for the ground anchoring of an offshore wind turbine via driven foundation piles in the ground, wherein the distributed support structure has primary structures (3, 4) via which loads which arise in the support structure on account of the wind turbine are dissipated, and secondary structures (8, 9, 10) which do not have load-dissipating functions but functional functions, wherein the secondary structures (8, 9, 10) are arranged on the primary structures (3, 4) and are cohesively connected thereto, characterized in that the cohesive connection between the primary (3, 4) and the secondary structure (8, 9, 10) is formed as a connecting layer (12, 28, 34) arranged in between.
A method of laser processing a complex pattern on a continuously moving substrate with a continuous cut plan, comprising: programming the laser for an upstream camming process for removal of one or more interior apertures and a downstream laser cutting process for removing one or more perimeters wherein a perimeter surrounds one or more interior apertures, comprising: dividing a path from a first point to a second point into one or more segments (44, 46, 48), the one or more segments comprising cut segments and jump segments (46, 48), wherein the laser is configured to cut the substrate along each cut segment to pass over the substrate along each jump segment (46, 48), to alternate between cut and jump segments (44, 46, 48) required by the path forming the one or more interior apertures; directing the laser beam continuously from the first point, a starting point to the second point, an ending point within a field of view of the laser and on a moving substrate to remove a plurality of areas from the substrate, the areas comprising the one or more interior apertures; altering laser power and speed concurrently as the laser continuously moves along the path as the laser moves along cut and jump segments (44, 46, 48); directing the laser beam downstream and along a path from the first point to the second point on the moving substrate, forming the one or more perimeters; and separating the cut areas from the substrate. programming the laser for an upstream camming process for removal of one or more interior apertures and a downstream laser cutting process for removing one or more perimeters wherein a perimeter surrounds one or more interior apertures, comprising: dividing a path from a first point to a second point into one or more segments (44, 46, 48), the one or more segments comprising cut segments and jump segments (46, 48), wherein the laser is configured to cut the substrate along each cut segment to pass over the substrate along each jump segment (46, 48), to alternate between cut and jump segments (44, 46, 48) required by the path forming the one or more interior apertures; directing the laser beam continuously from the first point, a starting point to the second point, an ending point within a field of view of the laser and on a moving substrate to remove a plurality of areas from the substrate, the areas comprising the one or more interior apertures; altering laser power and speed concurrently as the laser continuously moves along the path as the laser moves along cut and jump segments (44, 46, 48); directing the laser beam downstream and along a path from the first point to the second point on the moving substrate, forming the one or more perimeters; and separating the cut areas from the substrate.
A method of forming a shaped glass article (10; 10a), comprising: placing a glass sheet on a mold (20; 20a) having a mold surface (30; 30a) with a select shaped glass article profile, the placing being such that a first glass area of the glass sheet corresponds to a first mold surface area (32; 32a) of the mold surface (30; 30a) and a second glass area of the glass sheet corresponds to a second mold surface area (34; 34a) of the mold surface (30; 30a); heating the first glass area and the second glass area to a glass viscosity between 10 10.1 poise and 10 9 poise; locally heating the second glass area to a glass viscosity at or below 10 9.9 poise such that the glass viscosity of the second glass area is 8 poise or more lower than the glass viscosity of the first glass area; and applying a force to the glass sheet to conform the glass sheet to the mold surface (30; 30a) when the second glass area is at a glass viscosity at or below 10 9.9 poise, characterised in that the method further comprises actively and locally cooling the first mold surface area (32; 32a) to induce a thermal gradient on the mold surface (30; 30a) that results in the glass viscosity in the first glass area remaining above 10 9.9 poise during the local heating of the second glass area. placing a glass sheet on a mold (20; 20a) having a mold surface (30; 30a) with a select shaped glass article profile, the placing being such that a first glass area of the glass sheet corresponds to a first mold surface area (32; 32a) of the mold surface (30; 30a) and a second glass area of the glass sheet corresponds to a second mold surface area (34; 34a) of the mold surface (30; 30a); heating the first glass area and the second glass area to a glass viscosity between 10 10.1 poise and 10 9 poise; locally heating the second glass area to a glass viscosity at or below 10 9.9 poise such that the glass viscosity of the second glass area is 8 poise or more lower than the glass viscosity of the first glass area; and applying a force to the glass sheet to conform the glass sheet to the mold surface (30; 30a) when the second glass area is at a glass viscosity at or below 10 9.9 poise, characterised in that the method further comprises actively and locally cooling the first mold surface area (32; 32a) to induce a thermal gradient on the mold surface (30; 30a) that results in the glass viscosity in the first glass area remaining above 10 9.9 poise during the local heating of the second glass area.
A method, comprising determining at a communication device that at least one uplink resource element of a radio frame is a measurement hole, wherein a measurement hole is a resource allowing for measuring interference originating from neighbour cells, and wherein the at least one uplink resource element is uplink for a first cell, performing by the communication device at least one interference measurement on at least one resource element coinciding with the at least one uplink resource element, wherein said at least one resource element is downlink for a second cell, and generating at the communication device a channel state information report based on the measurement.
A system for starting a turbine engine, comprising: An auxiliary gearbox having a gearbox input shaft, the auxiliary gearbox, in use, being coupled to the turbine engine and the gearbox input shaft, in use, being coupled to a spool of the turbine engine via the auxiliary gearbox; A second gearbox; an electric starter having an electric-starter shaft, wherein the second gearbox couples the electric-starter shaft to the gearbox input shaft; and an air turbine starter having an air-turbine-starter shaft, wherein the second gearbox couples the air-turbine starter shaft to the gearbox input shaft; wherein the electric-starter shaft and the air-turbine-starter shaft are radially displaced, circumferentially displaced, or both radially and circumferentially displaced, with respective to an axis of the turbine engine, from one another; and wherein the electric starter is a starter-generator configured to be connected alternatively between an auxiliary power source and an auxiliary load. An auxiliary gearbox having a gearbox input shaft, the auxiliary gearbox, in use, being coupled to the turbine engine and the gearbox input shaft, in use, being coupled to a spool of the turbine engine via the auxiliary gearbox; A second gearbox; an electric starter having an electric-starter shaft, wherein the second gearbox couples the electric-starter shaft to the gearbox input shaft; and an air turbine starter having an air-turbine-starter shaft, wherein the second gearbox couples the air-turbine starter shaft to the gearbox input shaft; wherein the electric-starter shaft and the air-turbine-starter shaft are radially displaced, circumferentially displaced, or both radially and circumferentially displaced, with respective to an axis of the turbine engine, from one another; and wherein the electric starter is a starter-generator configured to be connected alternatively between an auxiliary power source and an auxiliary load.
A method of transmitting, by a user equipment, a acknowledgement/negative acknowledgement, ACK/NACK, signal to a base station, the method comprising: receiving a physical downlink control channel, PDCCH, carrying downlink control information for a physical downlink shared channel, PDSCH; and transmitting ACK/NACK information for the PDSCH using a physical uplink control channel, PUCCH, resource, the method characterized in that: the PUCCH resource is determined based on a lowest control channel element index of the PDCCH, a first PUCCH resource offset which is a value indicated by a higher layer, and a second PUCCH resource offset which is a value associated with an antenna port used for transmission of the PDCCH. receiving a physical downlink control channel, PDCCH, carrying downlink control information for a physical downlink shared channel, PDSCH; and transmitting ACK/NACK information for the PDSCH using a physical uplink control channel, PUCCH, resource, the PUCCH resource is determined based on a lowest control channel element index of the PDCCH, a first PUCCH resource offset which is a value indicated by a higher layer, and a second PUCCH resource offset which is a value associated with an antenna port used for transmission of the PDCCH.
An isolated anti-PD-1 antibody, which is a full-length IgG4, comprising: (i) a heavy chain variable region (V H) that comprises, or consists of, the amino acid sequence of and (ii) a light chain variable region (V L) that comprises, or consists of, the amino acid sequence of (i) a heavy chain variable region (V H) that comprises, or consists of, the amino acid sequence of and (ii) a light chain variable region (V L) that comprises, or consists of, the amino acid sequence of
A spark plug comprising: a center electrode extending in an axial direction; a ceramic insulator surrounding a radial circumference of the center electrode; a metallic shell surrounding a radial circumference of the ceramic insulator and holding the ceramic insulator; and a ground electrode which is bent such that one end portion thereof and a forward end portion of the center electrode form a gap therebetween, and another end portion of the ground electrode is joined to the metallic shell; a small spark member (31, 41) which contains a noble metal as a main component being provided on at least one of the center electrode and the ground electrode at a position which faces the gap; wherein: the spark member (31, 41) has a weight of 1.5 mg or more, and the center electrode or the ground electrode on which the spark member (31, 41) is provided contains Ni as a main component, C in an amount of 0.005% by mass to 0.1% by mass, Si in an amount of 1.05% by mass to 3% by mass, Mn in an amount of 2% by mass or less, Cr in an amount of 20% by mass to 32% by mass, and Fe in an amount of 6% by mass to 16% by mass. a center electrode extending in an axial direction; a ceramic insulator surrounding a radial circumference of the center electrode; a metallic shell surrounding a radial circumference of the ceramic insulator and holding the ceramic insulator; and a ground electrode which is bent such that one end portion thereof and a forward end portion of the center electrode form a gap therebetween, and another end portion of the ground electrode is joined to the metallic shell; a small spark member (31, 41) which contains a noble metal as a main component being provided on at least one of the center electrode and the ground electrode at a position which faces the gap; wherein: the spark member (31, 41) has a weight of 1.5 mg or more, and the center electrode or the ground electrode on which the spark member (31, 41) is provided contains Ni as a main component, C in an amount of 0.005% by mass to 0.1% by mass, Si in an amount of 1.05% by mass to 3% by mass, Mn in an amount of 2% by mass or less, Cr in an amount of 20% by mass to 32% by mass, and Fe in an amount of 6% by mass to 16% by mass. the spark member (31, 41) has a weight of 1.5 mg or more, and the center electrode or the ground electrode on which the spark member (31, 41) is provided contains Ni as a main component, C in an amount of 0.005% by mass to 0.1% by mass, Si in an amount of 1.05% by mass to 3% by mass, Mn in an amount of 2% by mass or less, Cr in an amount of 20% by mass to 32% by mass, and Fe in an amount of 6% by mass to 16% by mass.