mhurhangee/ep-ind-claims huggingface dataset:
A ceramic matrix composite, CMC, component (60, 80, 90, 100, 105, 110, 115, 120, 125, 130, 135, 140, 145, 150, 155) forming a portion of a nozzle for a gas turbine, comprising: a subcomponent comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix; a load bearing wall comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix, the load bearing wall being disposed on a surface of the subcomponent substantially perpendicular to that surface of the subcomponent, the load bearing wall being arranged to bear a load along a load path that is substantially normal to the reinforcing fibers of the load bearing wall; a wall support (72, 86) comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix; and at least one joint joining the subcomponent, the load bearing wall and the wall support, wherein the reinforcing fibers of the load bearing wall are oriented substantially normal to the reinforcing fibers of the subcomponent and the wall support. a subcomponent comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix; a load bearing wall comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix, the load bearing wall being disposed on a surface of the subcomponent substantially perpendicular to that surface of the subcomponent, the load bearing wall being arranged to bear a load along a load path that is substantially normal to the reinforcing fibers of the load bearing wall; a wall support (72, 86) comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix; and at least one joint joining the subcomponent, the load bearing wall and the wall support, wherein the reinforcing fibers of the load bearing wall are oriented substantially normal to the reinforcing fibers of the subcomponent and the wall support.
Whey-bound fresh cheese, having 1 - 6 wt.% milk protein based on the weight of the cheese, comprising as a first starch type a granular starch and as a second starch an amylomaltase [EC 2.4.1.25] treated starch.
A light fixture comprising: a. a housing that comprises a top end having an outer perimeter, wherein the top end comprises an aperture; b. a light source, wherein the light source is located within the housing; c. a cap positioned adjacent the top end; and d. a membrane positioned between the cap and the light source and having an outer perimeter, wherein the outer perimeter of the membrane substantially conforms to the outer perimeter of the top end of the housing and substantially covers the aperture in the top end characterised in that: the membrane is formed of a translucent material and is disposed to create a luminous highlight at the junction of the top end and the cap. a. a housing that comprises a top end having an outer perimeter, wherein the top end comprises an aperture; b. a light source, wherein the light source is located within the housing; c. a cap positioned adjacent the top end; and d. a membrane positioned between the cap and the light source and having an outer perimeter, wherein the outer perimeter of the membrane substantially conforms to the outer perimeter of the top end of the housing and substantially covers the aperture in the top end the membrane is formed of a translucent material and is disposed to create a luminous highlight at the junction of the top end and the cap.
An apparatus inspecting a superconducting wire, comprising: - an illumination unit (1, 2) emitting light to illuminate a superconducting wire; - a photoreceptive unit receiving light from said superconducting wire; and - an output unit accumulating data transmitted by the photoreceptive unit and outputting cumulative data of a quantity of light received by said photoreceptive unit, characterized by further comprising - a laser displacement sensor including a laser light illumination unit emitting a laser beam of light to illuminate said superconducting wire while moving relative to said superconducting wire in a longitudinal direction of said superconducting wire, a laser light reception unit receiving a laser beam of light reflected by said superconducting wire, and an output unit associated with said laser displacement sensor and outputting information on displacement of said superconducting wire as based on at which position said laser light reception unit receives light. - an illumination unit (1, 2) emitting light to illuminate a superconducting wire; - a photoreceptive unit receiving light from said superconducting wire; and - an output unit accumulating data transmitted by the photoreceptive unit and outputting cumulative data of a quantity of light received by said photoreceptive unit, characterized by further comprising - a laser displacement sensor including a laser light illumination unit emitting a laser beam of light to illuminate said superconducting wire while moving relative to said superconducting wire in a longitudinal direction of said superconducting wire, a laser light reception unit receiving a laser beam of light reflected by said superconducting wire, and an output unit associated with said laser displacement sensor and outputting information on displacement of said superconducting wire as based on at which position said laser light reception unit receives light.
A semiconductor package comprising: an electronic component; a lead frame that includes a die pad, on which the electronic component is fixed, and first terminals (3; 3a, 3b) being internal wires; wires to connect the electronic component and the first termi-nals (3; 3a, 3b); molded resin to seal the electronic component and the wires; a plurality of second terminals (8; 8a, 8b) disposed to surround the first terminals (3; 3a, 3b) on a package plane and formed to be capable of being grounded, said plurality of second terminals (8; 8a, 8b) being discretely disposed in an island-shaped manner or being connected to be a series, the second terminals (8; 8a, 8b) being included in the lead frame; and a conductive coating that covers a top surface and sides of the molded resin and is electrically connected to the second terminals (8; 8a, 8b), wherein a bottom surface of each of the second terminals (8; 8a, 8b) is exposed to the outside of the semiconductor package, a top surface of each of the second terminals (8; 8a, 8b) is in contact with the conductive coating, while all other surfaces of the second terminals (8; 8a, 8b) except their top surfaces and their bottom surfaces are covered with the molded resin so that said all other surfaces of the second terminals (8; 8a, 8b) are not in contact with the conductive coating. an electronic component; a lead frame that includes a die pad, on which the electronic component is fixed, and first terminals (3; 3a, 3b) being internal wires; wires to connect the electronic component and the first termi-nals (3; 3a, 3b); molded resin to seal the electronic component and the wires; a plurality of second terminals (8; 8a, 8b) disposed to surround the first terminals (3; 3a, 3b) on a package plane and formed to be capable of being grounded, said plurality of second terminals (8; 8a, 8b) being discretely disposed in an island-shaped manner or being connected to be a series, the second terminals (8; 8a, 8b) being included in the lead frame; and a conductive coating that covers a top surface and sides of the molded resin and is electrically connected to the second terminals (8; 8a, 8b), wherein a bottom surface of each of the second terminals (8; 8a, 8b) is exposed to the outside of the semiconductor package, a top surface of each of the second terminals (8; 8a, 8b) is in contact with the conductive coating, while all other surfaces of the second terminals (8; 8a, 8b) except their top surfaces and their bottom surfaces are covered with the molded resin so that said all other surfaces of the second terminals (8; 8a, 8b) are not in contact with the conductive coating.
Working station (2, 3, 4, 5, 11) for a packaging machine, wherein the working station (2, 3, 4, 5, 11) has a lifting unit having a pressure source and a lifting actuator connected to the pressure source and wherein the lifting actuator comprises: a hose comprising a wall having an inner surface and an outer surface disposed opposite the inner surface, a seal (24a, 24b) having a seal cap engaging the outer surface, and an insert engaging the inner surface, wherein the seal (24a, 24b) clamps a clamping portion of the wall of the hose between the insert and the seal cap in a fluidtight, preferably gastight, manner, and wherein the insert and the seal cap are screwable to one another characterized in that the insert has a tapered portion. a hose comprising a wall having an inner surface and an outer surface disposed opposite the inner surface, a seal (24a, 24b) having a seal cap engaging the outer surface, and an insert engaging the inner surface, wherein the seal (24a, 24b) clamps a clamping portion of the wall of the hose between the insert and the seal cap in a fluidtight, preferably gastight, manner, and wherein the insert and the seal cap are screwable to one another characterized in that the insert has a tapered portion.
Sensor device for detecting a wheel which moves along a travel rail, having - a first transmitter arranged on one side of the travel rail for generating a first electromagnetic alternating field, - a receiver arranged on the other side of the travel rail as well as - a second transmitter for generating a second electromagnetic alternating field, characterised in that - the second transmitter is arranged on the other side of the travel rail and - the second transmitter and the receiver are arranged in a shared housing. - a first transmitter arranged on one side of the travel rail for generating a first electromagnetic alternating field, - a receiver arranged on the other side of the travel rail as well as - a second transmitter for generating a second electromagnetic alternating field, - the second transmitter is arranged on the other side of the travel rail and - the second transmitter and the receiver are arranged in a shared housing.
A method for operating a wind power installation having a rotor with rotor blades with an adjustable blade angle, wherein the wind power installation - is operated in a full-load mode for delivering a system-specific maximum power and - in a partial-load mode for delivering a lower power, up to this system-specific maximum power, and wherein the wind power installation in the partial-load mode operates according to choice in a normal mode or a limited mode, in each case based on an operating characteristic, which specifies a relationship between a rotational speed (n) of the rotor and the power to be delivered, wherein - a first operating characteristic is provided for operating the wind power installation in the normal mode, and - at least one second operating characteristic is provided for operating the wind power installation in the limited mode and - the second operating characteristic provides a higher power for at least one rotational speed range than the first operating characteristic for this rotational speed range. - is operated in a full-load mode for delivering a system-specific maximum power and - in a partial-load mode for delivering a lower power, up to this system-specific maximum power, and wherein - a first operating characteristic is provided for operating the wind power installation in the normal mode, and - at least one second operating characteristic is provided for operating the wind power installation in the limited mode and - the second operating characteristic provides a higher power for at least one rotational speed range than the first operating characteristic for this rotational speed range.
A method for machine type communication at a wireless device, comprising: transmitting an indication of a capability to operate according to a plurality of modes for communicating with a network on at least one shared channel in a connected mode, the plurality of modes including a narrowband mode and at least one wider band mode, wherein: each wider band mode is based at least in part on a shared channel bandwidth between a narrowband shared channel bandwidth associated with the narrowband mode and a wideband shared channel bandwidth associated with a wideband mode, and the narrowband shared channel bandwidth being different from the wideband shared channel bandwidth; monitoring for a shared channel assignment associated with operation in the narrowband mode or one of the at least one wider band mode in (a) narrowband grants and (b) wider band grants or wideband grants; receiving a shared channel assignment based in part on the monitoring, wherein the received shared channel assignment is associated with operation in the narrowband mode or one of the at least one wider band mode; and communicating on a shared channel, when in the connected mode, in accordance with the received shared channel assignment. transmitting an indication of a capability to operate according to a plurality of modes for communicating with a network on at least one shared channel in a connected mode, the plurality of modes including a narrowband mode and at least one wider band mode, wherein: each wider band mode is based at least in part on a shared channel bandwidth between a narrowband shared channel bandwidth associated with the narrowband mode and a wideband shared channel bandwidth associated with a wideband mode, and the narrowband shared channel bandwidth being different from the wideband shared channel bandwidth; each wider band mode is based at least in part on a shared channel bandwidth between a narrowband shared channel bandwidth associated with the narrowband mode and a wideband shared channel bandwidth associated with a wideband mode, and the narrowband shared channel bandwidth being different from the wideband shared channel bandwidth; monitoring for a shared channel assignment associated with operation in the narrowband mode or one of the at least one wider band mode in (a) narrowband grants and (b) wider band grants or wideband grants; receiving a shared channel assignment based in part on the monitoring, wherein the received shared channel assignment is associated with operation in the narrowband mode or one of the at least one wider band mode; and communicating on a shared channel, when in the connected mode, in accordance with the received shared channel assignment.
Retaining device for retaining a vehicle occupant in a vehicle seat, with at least one retaining element which activates in the pre-crash situation, extends laterally on or in the vehicle seat and, partially lying against the vehicle occupant in the event of an accident, brings about a lateral support of the vehicle occupant in the vehicle seat, wherein at least three retaining elements (3, 7, 8), of which two are back-retaining elements (7, 8) and one is a pelvis-retaining element, are provided on each vehicle seat side (25, 26), characterized in that maximum restraint forces of the retaining elements (3, 7, 8) are coordinated with a previously determined vehicle-occupant loading capacity that is individually matched to the vehicle occupants.
A data communication method in a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to a base station, a complete message associated with a handover; the handover complete message including a PDCP status report; re-establishing a Radio Link Control, RLC, layer based on the handover; receiving, through the re-established RLC layer, a Packet Data Convergence Protocol, PDCP, Packet associated with a Sequence Number, SN; and delivering, to a higher layer, at least one PDCP packet with consecutively associated SN starting from the SN associated with the received PDCP packet. transmitting, to a base station, a complete message associated with a handover; the handover complete message including a PDCP status report; re-establishing a Radio Link Control, RLC, layer based on the handover; receiving, through the re-established RLC layer, a Packet Data Convergence Protocol, PDCP, Packet associated with a Sequence Number, SN; and delivering, to a higher layer, at least one PDCP packet with consecutively associated SN starting from the SN associated with the received PDCP packet.
A system comprising: a garment including an engagement feature, the garment configured to encompass a first location on a body, the engagement feature positioned in fixed alignment with the garment; and a sensor module including a sensor housing and including an optical sensor having an electrical node, the sensor configured to provide an electrical output on the node, the housing having a complementary feature, the complementary feature configured to couple and decouple with the engagement feature, the electrical output based on a measure of a physiological parameter associated with the body and based on site information corresponding to the engagement feature, wherein the sensor module includes an inductor coupled to the sensor, the inductor configured to wirelessly convey electric power to the sensor. a garment including an engagement feature, the garment configured to encompass a first location on a body, the engagement feature positioned in fixed alignment with the garment; and a sensor module including a sensor housing and including an optical sensor having an electrical node, the sensor configured to provide an electrical output on the node, the housing having a complementary feature, the complementary feature configured to couple and decouple with the engagement feature, the electrical output based on a measure of a physiological parameter associated with the body and based on site information corresponding to the engagement feature, wherein the sensor module includes an inductor coupled to the sensor, the inductor configured to wirelessly convey electric power to the sensor.
A flow cell module for use in a liquid sample analyzer, the liquid sample analyzer including a radiation source, a sensing device and a liquid sample source, the flow cell module comprising: a module housing; a liquid core waveguide mounted in the module housing and configured to receive a flow of a liquid sample from the liquid sample source; an input optical fiber disposed in the module housing and configured to transmit radiation from the radiation source to the liquid core waveguide; and an input termination on an input end of the input optical fiber; characterized by: a first kinematic connection mechanism operative to bias the input termination in a first direction (Kl) along a first axis (C-C) while permitting displacement of the input termination in a first opposing direction along the first axis; and a second kinematic connection mechanism operative to bias the input termination in a second direction along a second axis (E-E) while permitting displacement of the input termination in a second opposing direction along the second axis, wherein the second axis is transverse to the first axis. a module housing; a liquid core waveguide mounted in the module housing and configured to receive a flow of a liquid sample from the liquid sample source; an input optical fiber disposed in the module housing and configured to transmit radiation from the radiation source to the liquid core waveguide; and an input termination on an input end of the input optical fiber; characterized by: a first kinematic connection mechanism operative to bias the input termination in a first direction (Kl) along a first axis (C-C) while permitting displacement of the input termination in a first opposing direction along the first axis; and a second kinematic connection mechanism operative to bias the input termination in a second direction along a second axis (E-E) while permitting displacement of the input termination in a second opposing direction along the second axis, wherein the second axis is transverse to the first axis. a first kinematic connection mechanism operative to bias the input termination in a first direction (Kl) along a first axis (C-C) while permitting displacement of the input termination in a first opposing direction along the first axis; and a second kinematic connection mechanism operative to bias the input termination in a second direction along a second axis (E-E) while permitting displacement of the input termination in a second opposing direction along the second axis, wherein the second axis is transverse to the first axis.
A combustion engine comprising: - a first controllable engine valve arranged to selectively open/close a combustion chamber of a combustion engine, - a cylinder head that is adjacent the combustion chamber, and that is arranged to guide a valve stem of the engine valve, the engine valve being axially displaceable in relation to said cylinder head between a the combustion chamber closed position and a the combustion chamber fully opened position, and - a valve spring retainer that is connected to said valve stem, characterized in that the valve spring retainer partly delimit a gas spring volume, which is in fluid communication with an adjacent gas volume via a port when the engine valve is in the combustion chamber closed position, and which is separated from the adjacent gas volume when the engine valve is in the combustion chamber fully open position, said port being open during at least 25 percentage of the maximal stroke of the engine valve and being closed due to a displacement of the engine valve. - a first controllable engine valve arranged to selectively open/close a combustion chamber of a combustion engine, - a cylinder head that is adjacent the combustion chamber, and that is arranged to guide a valve stem of the engine valve, the engine valve being axially displaceable in relation to said cylinder head between a the combustion chamber closed position and a the combustion chamber fully opened position, and - a valve spring retainer that is connected to said valve stem,
A computer-implemented method for selecting a bitrate ladder for encoding source data, the method comprising: selecting a set of parameter values for a quantization parameter; for each parameter value, performing an encoding process using an encoder configured to encode source data to generate a set of encoded data while maintaining the quantization parameter at the parameter value; for each set of encoded data, determining a value of a video quality metric and a corresponding bitrate; deriving, a relationship between the video quality metrics and the corresponding bitrates; determining, based on the relationship, a bucketing bitrate corresponding to a first video quality metric, wherein the first video quality metric is equal to a predetermined threshold; determining that the bucketing bitrate is within a bitrate range associated with a first bitrate ladder included in a plurality of bitrate ladders, wherein each bitrate ladder included in the plurality of bitrate ladders is associated with a different bitrate range and includes a different plurality of bitrate-resolution pairs; and selecting the first bitrate ladder for encoding the source data. selecting a set of parameter values for a quantization parameter; for each parameter value, performing an encoding process using an encoder configured to encode source data to generate a set of encoded data while maintaining the quantization parameter at the parameter value; for each set of encoded data, determining a value of a video quality metric and a corresponding bitrate; deriving, a relationship between the video quality metrics and the corresponding bitrates; determining, based on the relationship, a bucketing bitrate corresponding to a first video quality metric, wherein the first video quality metric is equal to a predetermined threshold; determining that the bucketing bitrate is within a bitrate range associated with a first bitrate ladder included in a plurality of bitrate ladders, wherein each bitrate ladder included in the plurality of bitrate ladders is associated with a different bitrate range and includes a different plurality of bitrate-resolution pairs; and selecting the first bitrate ladder for encoding the source data.