mhurhangee/patent-ind-claim-en huggingface dataset:
Accelerating admixture for hydraulic compositions based on C-S-H seeds, which is obtainable by hydration in aqueous suspension of a hydraulic binder based on Portland cement or other hydraulic binders with a mainly silicate base, with a water/binder ratio (W/B) ranging from W/B = 1 to W/B = 6, at a temperature ranging from 10°C to 90°C, for times ranging from 2 hours to 300 hours, in the presence of carboxylic acids, the calcium salts thereof, polyethanolamines, or mixtures thereof.
An ink for forming a scintillator product, the ink comprising: a phenylated siloxane polymer having at least one functional group per molecule for crosslinking; a filler having a refractive index about matching a refractive index of the phenylated siloxane polymer, wherein the refractive indices are within about 5 % of one another; a rheology modifier; and at least one fluorescent dye. a phenylated siloxane polymer having at least one functional group per molecule for crosslinking; a filler having a refractive index about matching a refractive index of the phenylated siloxane polymer, wherein the refractive indices are within about 5 % of one another; a rheology modifier; and at least one fluorescent dye.
A composition for use in the treatment of a dermatological disorder in a subject in need thereof, the composition comprising: a) a reactive reinforcing component comprising a reactive constituent and a reinforcing constituent, and b) a cross-linking component comprising a metal catalyst; wherein said reactive constituent comprises at least one organopolysiloxane and at least one hydride functionalized polysiloxane; wherein the reactive reinforcing component has a vinyl to functional hydride ratio of between 1:10 and 1:100; and wherein said cross-linking component facilitates in situ cross-linking of the reactive reinforcing component, such that a film is formed on skin, thereby treating the dermatological disorder. a) a reactive reinforcing component comprising a reactive constituent and a reinforcing constituent, and b) a cross-linking component comprising a metal catalyst; wherein said reactive constituent comprises at least one organopolysiloxane and at least one hydride functionalized polysiloxane; wherein the reactive reinforcing component has a vinyl to functional hydride ratio of between 1:10 and 1:100; and wherein said cross-linking component facilitates in situ cross-linking of the reactive reinforcing component, such that a film is formed on skin, thereby treating the dermatological disorder.
A packaging device , comprising: a first circuit substrate , comprising a first line layer and a first insulation layer that are sequentially stacked, wherein at least one first electronic component is disposed on the first circuit substrate , and a second circuit substrate , comprising a second line layer and a second insulation layer that are sequentially stacked, wherein at least one second electronic component is disposed on the second circuit substrate , and a thermal conductivity of the first insulation layer is higher than a thermal conductivity of the second insulation layer , wherein the second circuit substrate comprises a circuit substrate body and at least one opening that penetrates the circuit substrate body , and at least one first circuit substrate is disposed in each opening . a first circuit substrate , comprising a first line layer and a first insulation layer that are sequentially stacked, wherein at least one first electronic component is disposed on the first circuit substrate , and a second circuit substrate , comprising a second line layer and a second insulation layer that are sequentially stacked, wherein at least one second electronic component is disposed on the second circuit substrate , and a thermal conductivity of the first insulation layer is higher than a thermal conductivity of the second insulation layer , wherein the second circuit substrate comprises a circuit substrate body and at least one opening that penetrates the circuit substrate body , and at least one first circuit substrate is disposed in each opening .
A heat exchanger header comprising: a primary fluid duct extending between a fluid port and a first branched region ; a plurality of secondary fluid ducts fluidly connected to the primary fluid duct at the first branched region, wherein the plurality of secondary fluid ducts extends from the first branched region such that an overhang region is formed laterally between adjacent ones of the plurality of secondary fluid ducts, and wherein each of the plurality of secondary fluid ducts extends between the first branched region and a second branched region ; a plurality of tertiary fluid ducts fluidly connected to each of the plurality of secondary fluid ducts at the second branched regions; wherein the heat exchanger header is additively manufactured as a single, monolithic unit; characterized in that the heat exchanger header further comprises: a primary horn integrally formed with and extending from the overhang region; an at least one secondary horn integrally formed with and extending from one of the plurality of tertiary fluid ducts; and a sacrificial support structure extending between the primary horn and the at least one secondary horn. a primary fluid duct extending between a fluid port and a first branched region ; a plurality of secondary fluid ducts fluidly connected to the primary fluid duct at the first branched region, wherein the plurality of secondary fluid ducts extends from the first branched region such that an overhang region is formed laterally between adjacent ones of the plurality of secondary fluid ducts, and wherein each of the plurality of secondary fluid ducts extends between the first branched region and a second branched region ; a plurality of tertiary fluid ducts fluidly connected to each of the plurality of secondary fluid ducts at the second branched regions; wherein the heat exchanger header is additively manufactured as a single, monolithic unit; a primary horn integrally formed with and extending from the overhang region; an at least one secondary horn integrally formed with and extending from one of the plurality of tertiary fluid ducts; and a sacrificial support structure extending between the primary horn and the at least one secondary horn.
Method for operating a feed module of an SCR catalytic converter system which has a feed pump , a feedback pump and a hydraulic interface channel , characterized in that the feed module is operated in a test state in which a feed operation of the feed pump takes place and a feed operation of the feedback pump does not take place, wherein on the basis of a time profile of an MSP current (I MSP ) of the feed pump in the test state it is decided whether the feed module is to change into a thawing state.
A coherent growth substrate product formed of man-made vitreous fibres bonded with a cured binder composition and a wetting agent, characterised in that the wetting agent is an alkyl ether sulphate.
Pressure-sensitive adhesive tape comprising a carrier and at least one layer of a pressure-sensitive adhesive based on solid EPDM rubber, where the pressure-sensitive adhesive comprises plasticizer and tackifier resin, and where the pressure-sensitive adhesive comprises a blend of at least two solid EPDM rubbers, the blend comprising from 10 to 30 wt% of at least one first EPDM rubber having a Mooney viscosity of at least 83 (ML 1+8 150°C) and from 20 to 50 wt% of at least one second EPDM rubber having a Mooney viscosity in a range from 65 to 85 (ML 1+4 125°C).
A method for manufacturing a CMC part provided with at least one cutout, comprising the following steps: - providing (E1) a fibrous reinforcement , - forming (E2') a cavity in a portion of the fibrous reinforcement , - injecting (E3) a slip comprising at least a ceramic powder and a solvent, the slip being injected so as to impregnate the fibrous reinforcement and to fill the cavity of the fibrous reinforcement , - drying (E4) the obtained assembly, - carrying out a densification (E6) by infiltration of a liquid densification material and solidification of said densification material, - machining (E7) at least one cutout in the obtained blank within the volume corresponding to the cavity of the fibrous reinforcement . - providing (E1) a fibrous reinforcement , - forming (E2') a cavity in a portion of the fibrous reinforcement , - injecting (E3) a slip comprising at least a ceramic powder and a solvent, the slip being injected so as to impregnate the fibrous reinforcement and to fill the cavity of the fibrous reinforcement , - drying (E4) the obtained assembly, - carrying out a densification (E6) by infiltration of a liquid densification material and solidification of said densification material, - machining (E7) at least one cutout in the obtained blank within the volume corresponding to the cavity of the fibrous reinforcement .
A calibration method for an optical rotation probe capable of emitting measurement light in a direction perpendicular to a probe axis and capable of rotating an emission direction of the measurement light around the probe axis , the calibration method comprising: a change step of changing the emission direction of the measurement light by a minute angle from a reference direction set in advance; an acquisition step of acquiring a shape error for a reference object after the change step by emitting the measurement light from the optical rotation probe toward the reference object while rotating the emission direction of the measurement light around the probe axis and varying a relative position between the optical rotation probe and the reference object ; and an adjustment error calculation step of calculating an adjustment error of the emission direction of the measurement light with respect to the reference direction based on a theoretical value of the shape error for the reference object to be obtained in a case where the emission direction of the measurement light matches the reference direction and a measurement value of the shape error for the reference object obtained in the acquisition step. a change step of changing the emission direction of the measurement light by a minute angle from a reference direction set in advance; an acquisition step of acquiring a shape error for a reference object after the change step by emitting the measurement light from the optical rotation probe toward the reference object while rotating the emission direction of the measurement light around the probe axis and varying a relative position between the optical rotation probe and the reference object ; and an adjustment error calculation step of calculating an adjustment error of the emission direction of the measurement light with respect to the reference direction based on a theoretical value of the shape error for the reference object to be obtained in a case where the emission direction of the measurement light matches the reference direction and a measurement value of the shape error for the reference object obtained in the acquisition step.
A method for refreshing a JEDEC SDRAM with an external multi-row, multi-bank refresh function based on optimized command sequences, the method comprising : - determining , at initialization time of the JEDEC SDRAM, inter-operation timing parameters for the external multi-row, multi-bank refresh function, - determining optimized timing parameters for row-level activation (ACT, 402) and pre-charge (PRE, 404) commands, where the optimized timing parameters comprise a time between the ACT command and the PRE command (t RAS ) and could further comprise at least one selected out of the group comprising the time between two successive ACT commands (t RRD , 402), a four-bank activate window (t FAW ) and a time for a PRE command to complete (t RP ), - applying the optimized timing parameters for the row-level ACT and PRE commands for refreshing the JEDEC SDRAM with the external multi-row multi-bank refresh function; wherein for operational commands un-optimized timing parameters are used, and wherein, for determining the optimized time between the ACT command and the PRE command (t RAS ), the method also comprises: - reducing stepwise the timing parameter t RAS by issuing PRE commands shorter after the ACT commands until a presence of a DQS signal is detected in response to an RD, read, command issued after the PRE command. - determining , at initialization time of the JEDEC SDRAM, inter-operation timing parameters for the external multi-row, multi-bank refresh function, - determining optimized timing parameters for row-level activation (ACT, 402) and pre-charge (PRE, 404) commands, where the optimized timing parameters comprise a time between the ACT command and the PRE command (t RAS ) and could further comprise at least one selected out of the group comprising the time between two successive ACT commands (t RRD , 402), a four-bank activate window (t FAW ) and a time for a PRE command to complete (t RP ), - applying the optimized timing parameters for the row-level ACT and PRE commands for refreshing the JEDEC SDRAM with the external multi-row multi-bank refresh function; wherein for operational commands un-optimized timing parameters are used, and wherein, for determining the optimized time between the ACT command and the PRE command (t RAS ), the method also comprises: - reducing stepwise the timing parameter t RAS by issuing PRE commands shorter after the ACT commands until a presence of a DQS signal is detected in response to an RD, read, command issued after the PRE command. - reducing stepwise the timing parameter t RAS by issuing PRE commands shorter after the ACT commands until a presence of a DQS signal is detected in response to an RD, read, command issued after the PRE command.
A method for detecting cavitation in the flow of a liquid through a control element , comprising the following steps: 1.1 establishing a flow state of the liquid through the control element in which no cavitation occurs; 1.1.1 measuring the transmission of an ultrasonic signal through the liquid in an inlet of the control element in this flow state; 1.1.2 measuring the transmission of an ultrasonic signal through the liquid in an outlet of the control element in this flow state; 1.1.3 forming a comparative quantity to compare the two measured transmissions in this flow state; 1.1.4 storing the comparative quantity as a reference value; 1.2 measuring the transmission of an ultrasonic signal through the liquid in the inlet of the control element in an operating state; 1.3 measuring the transmission of an ultrasonic signal through the liquid in the outlet of the control element in the operating state; 1.4 forming the comparative quantity for comparing the two measured transmissions in the operating state; 1.5 comparing the reference value with the comparative quantity determined in the operating state; 1.6 determining that cavitation is present if the comparison of the reference value with the comparative quantity determined in the operating state indicates a decrease in the transmission of the ultrasonic signal in the outlet of the control element by more than a predetermined threshold value. 1.1 establishing a flow state of the liquid through the control element in which no cavitation occurs; 1.1.1 measuring the transmission of an ultrasonic signal through the liquid in an inlet of the control element in this flow state; 1.1.2 measuring the transmission of an ultrasonic signal through the liquid in an outlet of the control element in this flow state; 1.1.3 forming a comparative quantity to compare the two measured transmissions in this flow state; 1.1.4 storing the comparative quantity as a reference value; 1.2 measuring the transmission of an ultrasonic signal through the liquid in the inlet of the control element in an operating state; 1.3 measuring the transmission of an ultrasonic signal through the liquid in the outlet of the control element in the operating state; 1.4 forming the comparative quantity for comparing the two measured transmissions in the operating state; 1.5 comparing the reference value with the comparative quantity determined in the operating state; 1.6 determining that cavitation is present if the comparison of the reference value with the comparative quantity determined in the operating state indicates a decrease in the transmission of the ultrasonic signal in the outlet of the control element by more than a predetermined threshold value.
A turbine nozzle comprising: a radially inner platform ; an airfoil extending from the radially inner platform to a radially outer tip , the airfoil comprising a leading edge and a trailing edge ; and a single flow groove extending from the leading edge to the trailing edge of the airfoil along a suction side thereof, wherein the flow groove is positioned closer to the tip than to the platform and wherein the flow groove blends smoothly into the leading edge and the trailing edge . a radially inner platform ; an airfoil extending from the radially inner platform to a radially outer tip , the airfoil comprising a leading edge and a trailing edge ; and a single flow groove extending from the leading edge to the trailing edge of the airfoil along a suction side thereof, wherein the flow groove is positioned closer to the tip than to the platform and wherein the flow groove blends smoothly into the leading edge and the trailing edge .
A compound represented by the following general formula (I), or a pharmaceutically acceptable salt thereof, wherein, Ring A is indolyl, indazolyl, pyrrolo[2,3-c]pyridinyl, pyrrolo[3,2-c]pyridinyl, pyrrolo[2,3-b]pyridinyl, pyrrolo[3,2-b]pyridinyl, pyrrolo[2,3-b]pyrazinyl, indolin-2-onyl, pyridinyl, pyrazolyl or pyrimidinyl; R 1 is selected from a group consisting of hydrogen, halogen, C 1 -C 4 alkyl, or haloC 1 -C 4 alkyl; R 2 is selected from a group consisting of C 1 -C 4 alkyl, or haloC 1 -C 4 alkyl; R 4 is each R 5 is independently halogen, C 1 -C 4 alkyl, haloC 1 -C 4 alkyl, -OR 7 , or -NR 7 R 7 '; R 3 is -NR 6 R 7 , wherein, R 6 is -(CH 2 ) q NR 7 R 7 '; R 7 and R 7 ' are each independently hydrogen, or C 1 -C 4 alkyl; m is 1, 2 or 3; q is 2. Ring A is indolyl, indazolyl, pyrrolo[2,3-c]pyridinyl, pyrrolo[3,2-c]pyridinyl, pyrrolo[2,3-b]pyridinyl, pyrrolo[3,2-b]pyridinyl, pyrrolo[2,3-b]pyrazinyl, indolin-2-onyl, pyridinyl, pyrazolyl or pyrimidinyl; R 1 is selected from a group consisting of hydrogen, halogen, C 1 -C 4 alkyl, or haloC 1 -C 4 alkyl; R 2 is selected from a group consisting of C 1 -C 4 alkyl, or haloC 1 -C 4 alkyl; R 4 is each R 5 is independently halogen, C 1 -C 4 alkyl, haloC 1 -C 4 alkyl, -OR 7 , or -NR 7 R 7 '; R 3 is -NR 6 R 7 , wherein, R 6 is -(CH 2 ) q NR 7 R 7 '; R 7 and R 7 ' are each independently hydrogen, or C 1 -C 4 alkyl; m is 1, 2 or 3; q is 2.
An electronic aerosol provision device , the device comprising a housing for receipt of an aerosol generating component, the housing comprising an air inlet and an aerosol outlet , wherein the device is configured to induce a reduction in the temperature of an aerosol when exiting the air inlet, characterised in that the air inlet comprises an aperture with at least one fixed obstruction which extends at least partially across the aperture without fully preventing airflow through the aperture.
Device for receiving and clamping a rotor bearing , comprising at least one bearing block that is located transversely to a bearing axis of the rotor bearing and is supported by a base element , a bearing element designed to receive the rotor bearing , a clamping arm and a locking device , the clamping arm having an engagement element by means of which it can be brought into engagement with the rotor bearing , and wherein the locking device comprises at least two engagement elements which are radially movable in the bearing element and by actuation of the locking device can be introduced into radial receptacles in the rotor bearing , such that a rotor bearing which can be received by the bearing element can be clamped by the engagement elements of the clamping arm and of the locking device , wherein the clamping arm is movable, characterized in that the clamping arm is attached to the base element and can be pivoted from a loading position, in which the bearing element is accessible for the receiving of the rotor bearing , into a clamping position, in which it can be brought into engagement with the received rotor bearing .
A system for determining a representation of cardiac output in a patient, comprising: a transducer unit configured for transmitting to and receiving ultrasound signals from the Superior Vena Cava and the Inferior Vena Cava of the patient, and a processor configured to control the transducer unit , wherein the controlling includes controlling of a first and a second timing of receiving ultrasound signals in relation to a transmission of ultrasound signals, and to process the ultrasound signals received at the first and the second timing, so as to determine a first and a second velocity of blood, the first velocity of blood being that of blood in the Superior Vena Cava and the second velocity of blood being that of blood in the Inferior Vena Cava , wherein the processor is further configured to be arranged to determine the representation of cardiac output from the first and the second velocity. a transducer unit configured for transmitting to and receiving ultrasound signals from the Superior Vena Cava and the Inferior Vena Cava of the patient, and a processor configured to control the transducer unit , wherein the controlling includes controlling of a first and a second timing of receiving ultrasound signals in relation to a transmission of ultrasound signals, and to process the ultrasound signals received at the first and the second timing, so as to determine a first and a second velocity of blood, the first velocity of blood being that of blood in the Superior Vena Cava and the second velocity of blood being that of blood in the Inferior Vena Cava , to control the transducer unit , wherein the controlling includes controlling of a first and a second timing of receiving ultrasound signals in relation to a transmission of ultrasound signals, and to process the ultrasound signals received at the first and the second timing, so as to determine a first and a second velocity of blood, the first velocity of blood being that of blood in the Superior Vena Cava and the second velocity of blood being that of blood in the Inferior Vena Cava ,
A method for producing a 2,2'-bis(alkoxycarbonylmethoxy)-1,1'-binaphthyl represented by formula below, the method comprising reacting 1,1'-binaphthalene-2,2'-diol and a chloroacetic acid ester represented by formula below with each other in a C5 to C8 aliphatic ketone solvent in the presence of an alkali metal iodide, [Chem. 1] ClCH 2 COOR where R represents a C1 to C8 alkyl group, wherein the alkyl group is a linear alkyl group, branched alkyl group or cyclic alkyl group where R represents a C1 to C8 alkyl group. where R represents a C1 to C8 alkyl group, wherein the alkyl group is a linear alkyl group, branched alkyl group or cyclic alkyl group where R represents a C1 to C8 alkyl group.