mhurhangee/ep-ind-claims huggingface dataset:
A media for inkjet web press printing comprising: a paper substrate comprising cellulose fibers; an ink receptive layer coated on at least one surface of the paper substrate, said ink receptive layer comprising: inorganic pigments; at least one water-based binder; a water-soluble metallic salt; a colorant durability enhancer selected from the group consisting of boric acid, borax, sodium tetraborate, phenyl boronic acid, butyl boronic acid and combinations thereof; and a coefficient of friction reducer selected from the group consisting of polyethylene wax, paraffin wax, carnauba wax, polypropylene wax, polytetrafluoroethylene wax, and combinations thereof. a paper substrate comprising cellulose fibers; an ink receptive layer coated on at least one surface of the paper substrate, said ink receptive layer comprising: inorganic pigments; at least one water-based binder; a water-soluble metallic salt; a colorant durability enhancer selected from the group consisting of boric acid, borax, sodium tetraborate, phenyl boronic acid, butyl boronic acid and combinations thereof; and a coefficient of friction reducer selected from the group consisting of polyethylene wax, paraffin wax, carnauba wax, polypropylene wax, polytetrafluoroethylene wax, and combinations thereof. inorganic pigments; at least one water-based binder; a water-soluble metallic salt; a colorant durability enhancer selected from the group consisting of boric acid, borax, sodium tetraborate, phenyl boronic acid, butyl boronic acid and combinations thereof; and a coefficient of friction reducer selected from the group consisting of polyethylene wax, paraffin wax, carnauba wax, polypropylene wax, polytetrafluoroethylene wax, and combinations thereof.
A frequency offset detector (100;200;300;400) for measuring the sign and magnitude of a frequency offset between a local oscillator frequency at a receiver and the frequency of a received complex signal, comprising: a first detector (102;202)adapted to detect at least one quadrant transition of the received complex signal in a counter-clockwise rotation direction; a first accumulator (108;208;408) adapted to accumulate a number of counter-clockwise quadrant transitions detected by the first detector during a time period; a second detector (104;204)adapted to detect at least one corresponding quadrant transition of the received complex signal in a clockwise rotation direction; a second accumulator (108;208;408) adapted to accumulate a number of clockwise quadrant transitions detected by the second detector during the same time period; characterized by comparing means (112,120;212,216;412,416) adapted to compare the accumulated counter-clockwise quadrant transitions with the clockwise quadrant transitions to obtain a difference value, a sign of that difference value being indicative of the frequency offset sign and a magnitude of that difference value being indicative of the frequency offset magnitude; and means (508,510) for adjusting operation of a receiver frequency control loop in accordance with the sign and magnitude. a first detector (102;202)adapted to detect at least one quadrant transition of the received complex signal in a counter-clockwise rotation direction; a first accumulator (108;208;408) adapted to accumulate a number of counter-clockwise quadrant transitions detected by the first detector during a time period; a second detector (104;204)adapted to detect at least one corresponding quadrant transition of the received complex signal in a clockwise rotation direction; a second accumulator (108;208;408) adapted to accumulate a number of clockwise quadrant transitions detected by the second detector during the same time period; characterized by comparing means (112,120;212,216;412,416) adapted to compare the accumulated counter-clockwise quadrant transitions with the clockwise quadrant transitions to obtain a difference value, a sign of that difference value being indicative of the frequency offset sign and a magnitude of that difference value being indicative of the frequency offset magnitude; and means (508,510) for adjusting operation of a receiver frequency control loop in accordance with the sign and magnitude.
Injection moulding tool for producing a hollow moulded part from a fibre-reinforced plastic material, at least comprising a first tool half, which has an injection nozzle (13, 22), and a second tool half, which has at least one mould core, wherein a mould cavity fillable with the plastic material is formed between the mould core and the first tool half and is connected to the injection nozzle (13, 22) via an umbrella-shaped sprue channel, characterized in that the sprue channel has a spherical region in the manner of a hemispherical shell.
A bicycle trailer, in particular for transporting children, having a chassis (1/23) and an associated frame for a passenger compartment, which comprises at least two wheels (2/21) and is configured to be provided with a towbar (3/22) for attachment to a bicycle and with at least a third wheel for using the bicycle trailer as a stroller or jogger, having a lighting device (14/35) and a push handle (6/25), characterized in that at least one lighting device (14/28/29/35) is integrated into the push handle (6/25) or into a coupling for attaching the push handle (6/25) to the frame.
A combustion device comprising: a compressor configured to compress combustion air; a combustor configured to combust the compressed combustion air and fuel ammonia; and an ammonia injector configured to inject the fuel ammonia into the combustion air during compression of the combustion air by the compressor and to cool the combustion air, wherein the compressor includes a plurality of stator blades (2a1) and a plurality of rotor blades (2a2), and the plurality of stator blades (2a1) configures stator blade rows formed at intervals in a flow direction of the combustion air, and each of the stator blade rows is configured of stator blades (2a1) of the plurality of stator blades (2a1) that is annularly arranged, characterized in that injection holes (2a3) are provided in stator blades (2a1) configuring one of the stator blade rows, other stator blades (2a1), disposed upstream of the stator blades (2a1) provided with the injection holes (2a3) in the flow direction of the combustion air, are provided with flow passageways through which the fuel ammonia flows, are provided with no injection holes, and are configured such that the fuel ammonia is supplied thereinto and is collected without being injected, and the ammonia injector is configured to inject the collected fuel ammonia into the combustion air from the injection holes (2a3). a compressor configured to compress combustion air; a combustor configured to combust the compressed combustion air and fuel ammonia; and an ammonia injector configured to inject the fuel ammonia into the combustion air during compression of the combustion air by the compressor and to cool the combustion air, wherein the compressor includes a plurality of stator blades (2a1) and a plurality of rotor blades (2a2), and the plurality of stator blades (2a1) configures stator blade rows formed at intervals in a flow direction of the combustion air, and each of the stator blade rows is configured of stator blades (2a1) of the plurality of stator blades (2a1) that is annularly arranged, characterized in that injection holes (2a3) are provided in stator blades (2a1) configuring one of the stator blade rows, other stator blades (2a1), disposed upstream of the stator blades (2a1) provided with the injection holes (2a3) in the flow direction of the combustion air, are provided with flow passageways through which the fuel ammonia flows, are provided with no injection holes, and are configured such that the fuel ammonia is supplied thereinto and is collected without being injected, and
A method for determining, in vitro, the probability of a patient developing severe dengue, based on a blood sample, wherein: a) the quantity in said blood sample of at least one marker, which is olfactomedin 4, is determined, b) the quantity of olfactomedin 4 determined in step a) is compared with a reference quantity of said marker obtained from a group of individuals who have been diagnosed with non-severe dengue, wherein, if the quantity of olfactomedin 4 determined in step a) is greater than the reference quantity established in step b), it is determined that the patient will develop severe dengue. a) the quantity in said blood sample of at least one marker, which is olfactomedin 4, is determined, b) the quantity of olfactomedin 4 determined in step a) is compared with a reference quantity of said marker obtained from a group of individuals who have been diagnosed with non-severe dengue,
A gerotor device comprising: a valving plate; a balancing plate structure; and a rotor positioned between the valving plate and the balancing plate structure, wherein high pressure fluid flowing from the valving plate toward the rotor pushes the rotor toward the balancing plate structure, wherein the balancing plate structure includes a balancing plate and a second plate, wherein a first central cavity is defined between the balancing plate and the second plate; wherein the balancing plate includes a fluid passage having a first check valve connecting the first central cavity to a valving opening in the rotor and fluid passes through the fluid passage for pressurizing the first central cavity; a second outer annular cavity is positioned radially outwardly from and surrounds the first central cavity; wherein the balancing plate includes second check valves connecting the second outer annular cavity to an outer groove formed on a rear face of the rotor and connected to a valving groove on the forward face of the rotor through a passage that extends through the rotor, wherein the first check valve is in constant communication with the valving opening and one of the second check valves is in semi-constant communication with the outer groove; wherein due to the cooperation between the check valves (58, 64), the balancing plate is biased against the rotor, characterized in that the balancing plate includes first and second relief holes (72, 82; 82') extending through the balancing plate connected with the cavities (56, 62). a valving plate; a balancing plate structure; and a rotor positioned between the valving plate and the balancing plate structure, wherein high pressure fluid flowing from the valving plate toward the rotor pushes the rotor toward the balancing plate structure, wherein the balancing plate structure includes a balancing plate and a second plate, wherein a first central cavity is defined between the balancing plate and the second plate; wherein the balancing plate includes a fluid passage having a first check valve connecting the first central cavity to a valving opening in the rotor and fluid passes through the fluid passage for pressurizing the first central cavity; a second outer annular cavity is positioned radially outwardly from and surrounds the first central cavity; wherein the balancing plate includes second check valves connecting the second outer annular cavity to an outer groove formed on a rear face of the rotor and connected to a valving groove on the forward face of the rotor through a passage that extends through the rotor, wherein the first check valve is in constant communication with the valving opening and one of the second check valves is in semi-constant communication with the outer groove; wherein due to the cooperation between the check valves (58, 64), the balancing plate is biased against the rotor, the balancing plate includes first and second relief holes (72, 82; 82') extending through the balancing plate connected with the cavities (56, 62).
A surgical instrument (50, 150), comprising: a housing (52, 152); a handle extending from said housing; a transducer configured to produce vibrations; an end-effector engaged with said transducer, wherein said end-effector defines an axis and a distal tip, and wherein said distal tip is movable relative to said axis by vibrations produced by said transducer; an adjustable depth stop movably supported relative to said end-effector, wherein said depth stop includes a distal tip, and wherein said distal tip of said depth stop is movable relative to said distal tip of said end-effector; an actuator extending from said housing, wherein said actuator is relatively movable with respect to said handle; and characterized by a ratchet mechanism (60, 160), wherein said depth stop is engaged with said ratchet mechanism, and wherein said actuator is operably engaged with said ratchet mechanism such that, when said actuator is moved relative to said handle, said distal end of said depth stop is moved relative to said distal end of said end-effector. a housing (52, 152); a handle extending from said housing; a transducer configured to produce vibrations; an end-effector engaged with said transducer, wherein said end-effector defines an axis and a distal tip, and wherein said distal tip is movable relative to said axis by vibrations produced by said transducer; an adjustable depth stop movably supported relative to said end-effector, wherein said depth stop includes a distal tip, and wherein said distal tip of said depth stop is movable relative to said distal tip of said end-effector; an actuator extending from said housing, wherein said actuator is relatively movable with respect to said handle; and characterized by a ratchet mechanism (60, 160), wherein said depth stop is engaged with said ratchet mechanism, and wherein said actuator is operably engaged with said ratchet mechanism such that, when said actuator is moved relative to said handle, said distal end of said depth stop is moved relative to said distal end of said end-effector.
A steel for induction hardening consisting of, in terms of mass%, C: 0.40% or more to 0.75% or less; Si: 0.4% or more to 2.5% or less; Mn: 0.45% or more to 1.0% or less; S: 0.002% or more to 0.1% or less; Al: more than 0.10% to 3.0% or less; P: 0.030% or less; N: 0.035% or less; and optionally one or more selected from the group consisting of B: 0.0004% or more to 0.005% or less; Ti: 0.004% or more to 0.10% or less; Cr: 0.05% or more to 1.50% or less; Mo: 0.05% or more to 0.6% or less; Nb: 0.005% or more to 0.2% or less; V: 0.01% or more to 1.0% or less; Sb: 0.0005% or more to 0.0150% or less; Sn: 0.005% or more to 2.0% or less; Zn: 0.0005% or more to 0.5% or less; Te: 0.0003% or more to 0.2% or less; Bi: 0.005% or more to 0.5% or less; Pb: 0.005% or more to 0.5% or less; Zr: 0.0003% or more to 0.005% or less; REM: 0.0003% or more to 0.005% or less; Ni: 0.05% or more to 2.0% or less; and Cu: 0.01% or more to 2.0% or less; with the remainder being Fe and inevitable impurities, wherein the following expression is satisfied: % Al − 27 / 14 × % N − 0.001 > 0.10 ⁢ %; wherein [%Al] and [%N] represent the amounts of Al and N, respectively, in the steel in terms of mass%. C: 0.40% or more to 0.75% or less; Si: 0.4% or more to 2.5% or less; Mn: 0.45% or more to 1.0% or less; S: 0.002% or more to 0.1% or less; Al: more than 0.10% to 3.0% or less; P: 0.030% or less; N: 0.035% or less;
A system of apparatuses comprising: sensor equipment including one or more sensors (140, 142) disposed on a parcel of land; watering equipment disposed on the parcel and configured to selectively apply water to the parcel; a user terminal; and a gateway configured to communicate with the sensor equipment, the watering equipment, and the user terminal, the watering equipment includes a watering pump, the watering pump being operably coupled to a water source and a water line to alternately couple the water source to and isolate the water source from the water line, and the watering pump including processing circuitry configured to: determine an operational mode of the watering pump; and direct the watering pump to operate in accordance with the operational mode, characterized in that: the processing circuitry monitors and calculates the runtime of and the water usage by the watering pump and based on the calculations determines an average run time and water usage of the watering pump over a predetermined time interval to calculate a recommended maintenance interval of the watering pump. sensor equipment including one or more sensors (140, 142) disposed on a parcel of land; watering equipment disposed on the parcel and configured to selectively apply water to the parcel; a user terminal; and a gateway configured to communicate with the sensor equipment, the watering equipment, and the user terminal, the watering equipment includes a watering pump, the watering pump being operably coupled to a water source and a water line to alternately couple the water source to and isolate the water source from the water line, and the watering pump including processing circuitry configured to: determine an operational mode of the watering pump; and direct the watering pump to operate in accordance with the operational mode, characterized in that: the processing circuitry monitors and calculates the runtime of and the water usage by the watering pump and based on the calculations determines an average run time and water usage of the watering pump over a predetermined time interval to calculate a recommended maintenance interval of the watering pump. determine an operational mode of the watering pump; and direct the watering pump to operate in accordance with the operational mode, characterized in that: the processing circuitry monitors and calculates the runtime of and the water usage by the watering pump and based on the calculations determines an average run time and water usage of the watering pump over a predetermined time interval to calculate a recommended maintenance interval of the watering pump.
A device (301, 500, 601, 700, 800, 1120, 1220, 1320) for altering a shape of a pharyngeal wall by implantation of the device (301, 500, 601, 700, 800, 1120, 1220, 1320) in tissue beneath the pharyngeal wall, the device (301, 500, 700, 800, 1120, 1220, 1320) comprising: a retracting element (601, 1120, 1220) having a constrained configuration and an unconstrained configuration different from the constrained configuration; and a tissue engaging element connected to the retracting element (601, 1120, 1220), the tissue engaging element adapted for engaging the tissue beneath the pharyngeal wall; and whereby a shape of the pharyngeal wall is altered when the retracting element (601, 1120, 1220) reverts from the constrained configuration to the unconstrained configuration, characterized in that said device further comprises a sheath covering at least a portion of the tissue engaging element for protecting non-target tissue as the device is implanted; a retracting element (601, 1120, 1220) having a constrained configuration and an unconstrained configuration different from the constrained configuration; and a tissue engaging element connected to the retracting element (601, 1120, 1220), the tissue engaging element adapted for engaging the tissue beneath the pharyngeal wall; and whereby a shape of the pharyngeal wall is altered when the retracting element (601, 1120, 1220) reverts from the constrained configuration to the unconstrained configuration, characterized in that said device further comprises a sheath covering at least a portion of the tissue engaging element for protecting non-target tissue as the device is implanted;
Control system for a technical plant, in particular a manufacturing or process plant, which has at least one engineering station server to create a configuration for components of the technical plant and at least one operator station server for operator control and process monitoring of the configured components of the technical plant, wherein the engineering station server is designed and provided, starting from an already created configuration, to provide a change made by a configuration planner to the already created configuration with at least one change indicator (14, 15) which indicates the change made to the configuration, characterised in that the engineering station server is designed and provided to send the at least one change indicator (14, 15) in addition to the changed configuration to the operator station server in order to send information concerning the changes made to the configuration to an operator using the operator station server, wherein the operator station server is designed to visually present to the operator the information included in the change indicator (14, 15) received, to enable the operator to quickly register the changes made by the configuration planner to the configuration of the components of the technical plant, and wherein the operator station server is designed to visually display to the operator the information in the received change indicator (14, 15) only for those components of the technical plant for which the operator has access rights. the engineering station server is designed and provided to send the at least one change indicator (14, 15) in addition to the changed configuration to the operator station server in order to send information concerning the changes made to the configuration to an operator using the operator station server, wherein the operator station server is designed to visually present to the operator the information included in the change indicator (14, 15) received, to enable the operator to quickly register the changes made by the configuration planner to the configuration of the components of the technical plant, and wherein the operator station server is designed to visually display to the operator the information in the received change indicator (14, 15) only for those components of the technical plant for which the operator has access rights.
Soil-displacement assembly comprising a drill head for a soil-displacement drill for soil-displacing drilling in a surface, wherein the drill head comprises several flap leaves which are arranged so as to be able to pivot between a closed position and an open position, characterized in that the assembly comprises one or several closing elements which are adapted to be attached to the outside of at least two flap leaves in order to keep these flap leaves in their closed position and to prevent the flap leaves from pivoting and are configured to fail during drilling of the soil-displacement drill into the surface in such a manner that these closing elements do not impede pivoting of the flap leaves.