mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrashort pulsed fiber laser , comprising: a fiber booster extending over free space and having a light-emitter-doped multimode, MM, core which is configured to guide sub-nanosecond pulses of single mode, SM, linearly polarized signal light in a propagation direction; a pump provided with a pump light delivery fiber which is configured to guide pump light in the propagation direction and coextends with the fiber booster over the free space; a portable laser head receiving downstream regions of the fiber booster and the pump light delivery fiber , respectively; and a flexible sleeve surrounding the fiber booster and the pump light delivery fiber over the free space, wherein the portable laser head is configured to: redirect the pump light in a counter-propagation direction so that the redirected pump light is coupled into a downstream end of the MM core , output amplified signal light in the propagation direction in substantially a single fundamental mode; and a linearly chirped fiber Bragg grating, FBG, upstream from and coupled to the fiber booster ; and a tunable pulse stretcher supporting the linearly chirped FBG and operable to induce changes in a length of the FBG , wherein the tunable pulse stretcher includes a flexure mount which supports the FBG , and a piezoelectric actuator mounted to the flexure mount, so as to controllably tune a pulse duration of the signal light in a desired pulse duration range. a fiber booster extending over free space and having a light-emitter-doped multimode, MM, core which is configured to guide sub-nanosecond pulses of single mode, SM, linearly polarized signal light in a propagation direction; a pump provided with a pump light delivery fiber which is configured to guide pump light in the propagation direction and coextends with the fiber booster over the free space; a portable laser head receiving downstream regions of the fiber booster and the pump light delivery fiber , respectively; and a flexible sleeve surrounding the fiber booster and the pump light delivery fiber over the free space, redirect the pump light in a counter-propagation direction so that the redirected pump light is coupled into a downstream end of the MM core , output amplified signal light in the propagation direction in substantially a single fundamental mode; and a linearly chirped fiber Bragg grating, FBG, upstream from and coupled to the fiber booster ; and a tunable pulse stretcher supporting the linearly chirped FBG and operable to induce changes in a length of the FBG , wherein the tunable pulse stretcher includes a flexure mount which supports the FBG , and a piezoelectric actuator mounted to the flexure mount, so as to controllably tune a pulse duration of the signal light in a desired pulse duration range.
Single-piece feeder body for use as a component of a two-part or multi-part telescopic feeder insert in metal casting, having a feeder wall which at least partially delimits a feeder cavity for receiving liquid metal, wherein the feeder wall has - a passage opening for the liquid metal into the feeder cavity , and - an outer surface on which there are arranged at least one outwardly projecting holding element and at least one guide part with a sliding section for a feeder element which corresponds with the feeder body , wherein the guide part has a supporting section which protrudes outwardly on the outer surface and which, adjoining the sliding section of the guide part for guiding the feeder element , extends in the direction of the passage opening . having a feeder wall which at least partially delimits a feeder cavity for receiving liquid metal, wherein the feeder wall has - a passage opening for the liquid metal into the feeder cavity , and - an outer surface on which there are arranged at least one outwardly projecting holding element and at least one guide part with a sliding section for a feeder element which corresponds with the feeder body , - a passage opening for the liquid metal into the feeder cavity , and - an outer surface on which there are arranged at least one outwardly projecting holding element and at least one guide part with a sliding section for a feeder element which corresponds with the feeder body , wherein the guide part has a supporting section which protrudes outwardly on the outer surface and which, adjoining the sliding section of the guide part for guiding the feeder element , extends in the direction of the passage opening .
A data generation device comprising: a generating circuit configured to generate video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF, which supports a second range of an input intensity of light; and a storage to store: video usability information, VUI, including a first value indicating a first OETF; and supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF supports a first range of an input intensity of light and the second range is wider than the first range; the first value is to be referred to by a decoding device that does not support the second OETF, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture. a generating circuit configured to generate video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF, which supports a second range of an input intensity of light; and a storage to store: video usability information, VUI, including a first value indicating a first OETF; and supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF supports a first range of an input intensity of light and the second range is wider than the first range; the first value is to be referred to by a decoding device that does not support the second OETF, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture. video usability information, VUI, including a first value indicating a first OETF; and supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF supports a first range of an input intensity of light and the second range is wider than the first range; the first value is to be referred to by a decoding device that does not support the second OETF, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture.
A concrete mixture, characterized in that it contains aggregate, cement, water and a plasticizer formed of oxidized lignin, said oxidized lignin having been manufactured in a process wherein an aqueous lignin solution having a lignin content of 0.5-30w-%, preferably 5-25w-% was formed from a starting material being pure lignin and was reacted with an oxidizing agent selected from the group of oxygen (O 2 ) and air in the solution, said reaction having been carried out in alkaline conditions, at a pH within the range 8-14, using a load of oxidizing agent of 10 - 95 w-% calculated based on the weight of the lignin and adding an alkaline agent to provide the alkaline conditions, prior to addition of the oxidizing agent.
Transportation arrangement for transportation of an object on a surface, the transportation arrangement comprising at least one transportation unit comprising - a housing comprising a vertical front surface, two arms movably connected to the housing at each side of the vertical front surface, rolling elements arranged at the arms , where the rolling elements are configured to roll in any horizontal direction on the surface, where the arms are shaped as longitudinal elements with a circular cross section, the transportation arrangement being characterised in that it further comprises: - a power source connected to the rolling elements and the movable arms; and - at least one sensor device configured to measure the distance between the transportation unit and surrounding objects. - a housing comprising a vertical front surface, two arms movably connected to the housing at each side of the vertical front surface, rolling elements arranged at the arms , where the rolling elements are configured to roll in any horizontal direction on the surface, where the arms are shaped as longitudinal elements with a circular cross section, the transportation arrangement being characterised in that it further comprises: - a power source connected to the rolling elements and the movable arms; and - at least one sensor device configured to measure the distance between the transportation unit and surrounding objects. - a power source connected to the rolling elements and the movable arms; and - at least one sensor device configured to measure the distance between the transportation unit and surrounding objects.
Spectrometer (1; 1') without a cuvette for measuring the concentration of at least one analyte in a fluid sample (2; 2'), having at least one light source (3; 3') for generating a light beam (4; 4'), having a photosensor (5; 5') for receiving the light beam (4; 4'), and having a measurement path (6; 6') in the beam path of the light beam (4; 4') and it is possible to introduce the fluid sample (2; 2') into said measurement path, wherein the measurement path (6; 6') is provided in a variable manner, having a sleeve , having a light conductor that is fixedly attached in a handling part of the spectrometer , and said handling part is embodied as a housing, wherein light of the light source is coupled to a first end face of the light conductor , wherein the light conductor protrudes into the sleeve , wherein the measurement path is formed between the other end face of the light conductor and an end piece that closes the sleeve and that comprises the photo sensor and said measurement path can be varied by means of displacing the sleeve , wherein the sleeve comprises at least one opening that renders it possible to introduce the fluid sample into the measurement path , wherein the sleeve extends in sections into a receiving region in the handling part and is arranged in a displaceable manner within the receiving region . having at least one light source (3; 3') for generating a light beam (4; 4'), having a photosensor (5; 5') for receiving the light beam (4; 4'), and having a measurement path (6; 6') in the beam path of the light beam (4; 4') and it is possible to introduce the fluid sample (2; 2') into said measurement path, wherein the measurement path (6; 6') is provided in a variable manner, having a sleeve , having a light conductor that is fixedly attached in a handling part of the spectrometer , and said handling part is embodied as a housing, wherein light of the light source is coupled to a first end face of the light conductor , wherein the light conductor protrudes into the sleeve , wherein the measurement path is formed between the other end face of the light conductor and an end piece that closes the sleeve and that comprises the photo sensor and said measurement path can be varied by means of displacing the sleeve , wherein the sleeve comprises at least one opening that renders it possible to introduce the fluid sample into the measurement path , wherein the sleeve extends in sections into a receiving region in the handling part and is arranged in a displaceable manner within the receiving region .
A method, comprising: receiving, by a control module , from a closed-loop reference module , a reference control signal (R ref ), wherein the closed-loop reference module executes a reference model that represents operation of an engine , and wherein the reference control signal (R ref ) represents a measurable, manipulated engine variable associated with the operation of the engine ; receiving, by the control module , from an adaptation module , an adaptation signal (R adp ), wherein the adaptation module determines the adaptation signal (R adp ) based on a difference between a reference state trajectory signal (X ref ) output by the closed-loop reference module and an engine state trajectory signal (X eng ) representative of actual operation of the engine ; receiving, by the control module , the engine state trajectory signal; determining, by the control module , a demand signal (R dmd ) based on the engine state trajectory signal, the adaptation signal (R adp ), and the reference control signal (R ref ); and outputting, by the control module , the demand signal (R dmd ) to control operation of at least one component of the engine . receiving, by a control module , from a closed-loop reference module , a reference control signal (R ref ), wherein the closed-loop reference module executes a reference model that represents operation of an engine , and wherein the reference control signal (R ref ) represents a measurable, manipulated engine variable associated with the operation of the engine ; receiving, by the control module , from an adaptation module , an adaptation signal (R adp ), wherein the adaptation module determines the adaptation signal (R adp ) based on a difference between a reference state trajectory signal (X ref ) output by the closed-loop reference module and an engine state trajectory signal (X eng ) representative of actual operation of the engine ; receiving, by the control module , the engine state trajectory signal; determining, by the control module , a demand signal (R dmd ) based on the engine state trajectory signal, the adaptation signal (R adp ), and the reference control signal (R ref ); and outputting, by the control module , the demand signal (R dmd ) to control operation of at least one component of the engine .
An automotive thermoplastic resin composition, comprising: an aliphatic polyamide resin, comprising 1 wt% to 20 wt% of polyamide 6; and 30 wt% to 70 wt% of polyamide 66; the automotive thermoplastic resin composition further comprising: 0.1 wt% to 1 wt% of a first chelating agent comprising at least one of a carboxylic acid or a salt thereof and an amino group; 0.1 wt% to 5 wt% of a second chelating agent comprising a C 1 to C 10 (excluding carbon atoms in a carboxyl group) aliphatic polycarboxylic acid having 2 to 4 carboxyl groups; and fillers, wherein the amounts in wt% are based on the total weight of the polyamide 6, the polyamide 66, the first chelating agent, the second chelating agent and the fillers, wherein a weight ratio of the polyamide 6 to the polyamide 66 ranges from 1:2 to 1:25. an aliphatic polyamide resin, comprising 1 wt% to 20 wt% of polyamide 6; and 30 wt% to 70 wt% of polyamide 66; 1 wt% to 20 wt% of polyamide 6; and 30 wt% to 70 wt% of polyamide 66; the automotive thermoplastic resin composition further comprising: 0.1 wt% to 1 wt% of a first chelating agent comprising at least one of a carboxylic acid or a salt thereof and an amino group; 0.1 wt% to 5 wt% of a second chelating agent comprising a C 1 to C 10 (excluding carbon atoms in a carboxyl group) aliphatic polycarboxylic acid having 2 to 4 carboxyl groups; and 0.1 wt% to 1 wt% of a first chelating agent comprising at least one of a carboxylic acid or a salt thereof and an amino group; 0.1 wt% to 5 wt% of a second chelating agent comprising a C 1 to C 10 (excluding carbon atoms in a carboxyl group) aliphatic polycarboxylic acid having 2 to 4 carboxyl groups; and fillers, wherein the amounts in wt% are based on the total weight of the polyamide 6, the polyamide 66, the first chelating agent, the second chelating agent and the fillers, wherein a weight ratio of the polyamide 6 to the polyamide 66 ranges from 1:2 to 1:25.
A kerb barrier comprising: a first barrier member having a length, the first barrier member defining a cavity; and a second barrier member in the cavity of the first barrier member that extends substantially along the length of the first barrier member, wherein a base of the second barrier member is fixable to a base of the first barrier member, characterised in that , upon side impact, a region of the first barrier member is configured to bend relative to the second barrier member about a first bending point defined by the first barrier member, wherein the first barrier member is configured to act on the second barrier member such that the region of the first barrier member and a region of the second barrier member are configured to bend about a second bending point defined by the second barrier member, wherein the second bending point is spaced apart from the first bending point wherein, in an undeformed state, a clearance gap is provided between a wall of the first barrier member and a wall of the second barrier member. a first barrier member having a length, the first barrier member defining a cavity; and a second barrier member in the cavity of the first barrier member that extends substantially along the length of the first barrier member, wherein a base of the second barrier member is fixable to a base of the first barrier member, characterised in that , upon side impact, a region of the first barrier member is configured to bend relative to the second barrier member about a first bending point defined by the first barrier member, wherein the first barrier member is configured to act on the second barrier member such that the region of the first barrier member and a region of the second barrier member are configured to bend about a second bending point defined by the second barrier member, wherein the second bending point is spaced apart from the first bending point wherein, in an undeformed state, a clearance gap is provided between a wall of the first barrier member and a wall of the second barrier member.
A pharmaceutical composition comprising a compound represented by formula (I) or a salt thereof, a surfactant, and a basic substance, wherein the basic substance is at least one substance selected from the group consisting of magnesium aluminometasilicate, L-arginine, meglumine, magnesium oxide, magnesium hydroxide and magnesium carbonate.
A functional fluid comprising (a) a major amount of an oil of lubricating viscosity and (b) an oil soluble amount of glycerol carbonate or an oil soluble amount of a borated glycerol, wherein the oil soluble amount of glycerol carbonate is from 0.15 wt.% to 2.0 wt.% and the oil soluble amount of borated glycerol is greater than 0.1 wt% and less than or equal to 0.5 wt%. (a) a major amount of an oil of lubricating viscosity and (b) an oil soluble amount of glycerol carbonate or an oil soluble amount of a borated glycerol,
A deterioration detection device provided with a protection tube thermocouple for detecting deterioration of the protection tube thermocouple by applying current to a thermocouple of the protection tube thermocouple , wherein the protection tube thermocouple includes the thermocouple , and a protection tube which accommodates the thermocouple, characterized in that the protection tube includes: a conical portion formed on a front end side of the protection tube ; a hollow portion which extends in a length direction of the protection tube for connecting between a front end and a rear end of the protection tube in the inside of the protection tube , and into which the thermocouple is received; and a main body portion formed on the rear end side with respect to the conical portion , the hollow portion in the conical portion has a tapered portion configured such that a sectional area of the hollow portion decreases toward the front end ; wherein the hollow portion includes: a cylindrical portion which is formed on a rear end side with respect to the tapered portion , and a radius (r2) of the cylindrical portion being set to be larger than a radius (r1) of the tapered portion on the rear end side; and a step portion which is formed on the front end side with respect to a connection portion (P2) between the conical portion and the main body portion , and which connects between the cylindrical portion and the tapered portion , wherein from the connection portion (P2) the outer surface of the conical portion extends straight to the front end side. a conical portion formed on a front end side of the protection tube ; a hollow portion which extends in a length direction of the protection tube for connecting between a front end and a rear end of the protection tube in the inside of the protection tube , and into which the thermocouple is received; and a main body portion formed on the rear end side with respect to the conical portion , a cylindrical portion which is formed on a rear end side with respect to the tapered portion , and a radius (r2) of the cylindrical portion being set to be larger than a radius (r1) of the tapered portion on the rear end side; and a step portion which is formed on the front end side with respect to a connection portion (P2) between the conical portion and the main body portion , and which connects between the cylindrical portion and the tapered portion ,
A light detection device , comprising: a housing ; a sensing substrate disposed inside the housing ; a scintillator layer disposed inside the housing and disposed above the sensing substrate ; a light source module at least partially disposed inside the housing ; a support substrate disposed inside the housing ; and a circuit board disposed on a back side of the support substrate , wherein the sensing substrate is disposed above the support substrate , and the circuit board and the light source module are respectively disposed at two opposite sides of the support substrate , with the light detection device being characterized by further comprising: a light filter layer disposed above the scintillator layer , wherein the light filter layer comprises carbon fiber. a housing ; a sensing substrate disposed inside the housing ; a scintillator layer disposed inside the housing and disposed above the sensing substrate ; a light source module at least partially disposed inside the housing ; a support substrate disposed inside the housing ; and a circuit board disposed on a back side of the support substrate , wherein the sensing substrate is disposed above the support substrate , and the circuit board and the light source module are respectively disposed at two opposite sides of the support substrate , with the light detection device being characterized by further comprising: a light filter layer disposed above the scintillator layer , wherein the light filter layer comprises carbon fiber.
A fuel injector device comprising a body, said body comprising a leading edge and a trailing edge and defining a streamwise direction from the leading edge to the trailing edge, the fuel injector device body further comprising a first outer wall and a second outer wall opposite the first wall, each of said walls extending between and comprising the leading edge and the trailing edge and said walls conjoining each other at the leading edge and the trailing edge, each wall having a streamwise extent and a crosswise extent, said walls further enclosing an internal space; a cooling air plenum provided within the internal space; a first internal wall structure delimiting the cooling air plenum at a downstream end thereof; characterized in that said first internal wall structure is rigidly connected to the first outer wall and the second outer wall and that at least one first surface of said first internal wall structure is an inclined surface which forms an angle (a) with the streamwise direction which is smaller than or equal to a maximum angle, wherein said maximum angle is 60° and in that each of an upstream surface and a downstream surface of the first internal wall structure is an inclined surface and forms an angle (a) with the streamwise direction which is smaller than or equal to said maximum angle.