mhurhangee/patent-ind-claim-en huggingface dataset:
A jib connection structure being a connection structure between a leading end of a boom and a base end of a jib , the jib connection structure comprising: a jib connection shaft horizontally projecting in both lateral directions of the leading end of the boom ; and jib base end engagement portions provided at respective ends of the bifurcated base end of the jib , wherein the jib base end engagement portions are U-shaped into which the jib connection shaft is allowed to be fitted, and include insertion holes for insertion of pins , the pins being intended for preventing slipping off of the jib connection shaft , characterized in that : the insertion hole in one of the jib base end engagement portions is placed laterally outwardly from a U-shaped bottom portion; a line (L) that connects the right and left insertion holes is inclined with respect to a plane (P1) perpendicular to a central axis (O) of the jib ; and a center of gravity (G) of the jib lies between two planes (P2, P3) perpendicular to the line (L) connecting the right and left insertion holes , the two planes (P2, P3) including the respective insertion holes . a jib connection shaft horizontally projecting in both lateral directions of the leading end of the boom ; and jib base end engagement portions provided at respective ends of the bifurcated base end of the jib , wherein the jib base end engagement portions are U-shaped into which the jib connection shaft is allowed to be fitted, and include insertion holes for insertion of pins , the pins being intended for preventing slipping off of the jib connection shaft , characterized in that : the insertion hole in one of the jib base end engagement portions is placed laterally outwardly from a U-shaped bottom portion; a line (L) that connects the right and left insertion holes is inclined with respect to a plane (P1) perpendicular to a central axis (O) of the jib ; and a center of gravity (G) of the jib lies between two planes (P2, P3) perpendicular to the line (L) connecting the right and left insertion holes , the two planes (P2, P3) including the respective insertion holes . the insertion hole in one of the jib base end engagement portions is placed laterally outwardly from a U-shaped bottom portion; a line (L) that connects the right and left insertion holes is inclined with respect to a plane (P1) perpendicular to a central axis (O) of the jib ; and a center of gravity (G) of the jib lies between two planes (P2, P3) perpendicular to the line (L) connecting the right and left insertion holes , the two planes (P2, P3) including the respective insertion holes .
An apparatus for use in an extreme ultraviolet (EUV) actinic mask inspection system or an EUV lithographic system, the apparatus having contamination protection and comprising: a duct having a first end opening , a second end opening and an intermediate opening disposed intermediate the first end opening and the second end opening ; an optical component disposed so as 1) to receive EUV light from the first end opening after the light has passed through the second end opening or 2) to send light through the first end opening to the second end opening ; a source of low pressure gas at a first pressure, the gas having a transmission of EUV light greater than or equal to 50%, fluidly coupled to the intermediate opening , the first end opening and the second end opening maintained at a lower pressure than the first pressure; and a voltage device adapted to generate a voltage difference between a first portion of the duct and a second portion of the duct with a grounded electrically-insulative portion therebetween. a duct having a first end opening , a second end opening and an intermediate opening disposed intermediate the first end opening and the second end opening ; an optical component disposed so as 1) to receive EUV light from the first end opening after the light has passed through the second end opening or 2) to send light through the first end opening to the second end opening ; a source of low pressure gas at a first pressure, the gas having a transmission of EUV light greater than or equal to 50%, fluidly coupled to the intermediate opening , the first end opening and the second end opening maintained at a lower pressure than the first pressure; and a voltage device adapted to generate a voltage difference between a first portion of the duct and a second portion of the duct with a grounded electrically-insulative portion therebetween.
Method for operating a wind turbine , the wind turbine comprising - a rotor operable with variable rotor speed, - the rotor having rotor blades with adjustable pitch angles, and - the adjustable pitch angles are represented by a common pitch angle, wherein - the wind turbine produces electrical power from wind, - the wind causes a rotor thrust acting on the rotor depending on the rotor speed and depending on the common pitch angle, - in a partial load situation, when the wind is below rated wind speed, the wind turbine is controlled by means of a rotor speed curve, defining the rotor speed for each operating point of the wind turbine, wherein - in a normal operational mode when the operation of the wind turbine is not throttled, a normal rotor speed curve in combination with a normal common pitch angle is used, and - in a throttled operational mode when the rotor thrust is to be limited, a throttled rotor speed curve, different to the normal rotor speed curve, in combination with a throttled common pitch angle, different to the normal common pitch angle, is used in order to reduce the rotor thrust, wherein - the operation of the rotor is characterized by a power coefficient, - a relationship between the power coefficient and the rotor thrust coefficient is defined as an optimization criterion (oc) and wherein - the throttled rotor speed curve is designed such that the optimization criterion is maximized. - a rotor operable with variable rotor speed, - the rotor having rotor blades with adjustable pitch angles, and - the adjustable pitch angles are represented by a common pitch angle, wherein - the wind turbine produces electrical power from wind, - the wind causes a rotor thrust acting on the rotor depending on the rotor speed and depending on the common pitch angle, - in a partial load situation, when the wind is below rated wind speed, the wind turbine is controlled by means of a rotor speed curve, defining the rotor speed for each operating point of the wind turbine, wherein - in a normal operational mode when the operation of the wind turbine is not throttled, a normal rotor speed curve in combination with a normal common pitch angle is used, and - in a throttled operational mode when the rotor thrust is to be limited, a throttled rotor speed curve, different to the normal rotor speed curve, in combination with a throttled common pitch angle, different to the normal common pitch angle, is used in order to reduce the rotor thrust, wherein - the operation of the rotor is characterized by a power coefficient, - a relationship between the power coefficient and the rotor thrust coefficient is defined as an optimization criterion (oc) and wherein - the throttled rotor speed curve is designed such that the optimization criterion is maximized. - the throttled rotor speed curve is designed such that the optimization criterion is maximized.
A compound of formula (I): or a salt thereof, wherein: A is selected from: R 1 is selected from hydrogen, C 1 -C 12 alkyl, C 2 -C 12 alkenyl, and C 1 -C 12 haloalkyl; R 2 is selected from C 4 -C 20 alkyl, C 4 -C 20 alkenyl, C 4 -C 20 haloalkyl; each R 3 is independently selected from C 1 -C 12 alkyl, C 2 -C 12 alkenyl, and C 1 -C 12 haloalkyl; m is 1, 2, or 3; R a and R b , at each occurrence, are independently selected from hydrogen and C 1 -C 3 alkyl; Q is selected from C 1 -C 6 -alkylene, C 1 -C 6 -hydroxyalkylene, and a group of formula: wherein n is 1, 2, 3, 4, 5, or 6; and each M is independently selected from hydrogen, an alkali metal cation, and NR 4 + , wherein each R is independently selected from hydrogen and C 1 -C 12 alkyl. A is selected from: R 1 is selected from hydrogen, C 1 -C 12 alkyl, C 2 -C 12 alkenyl, and C 1 -C 12 haloalkyl; R 2 is selected from C 4 -C 20 alkyl, C 4 -C 20 alkenyl, C 4 -C 20 haloalkyl; each R 3 is independently selected from C 1 -C 12 alkyl, C 2 -C 12 alkenyl, and C 1 -C 12 haloalkyl; m is 1, 2, or 3; R a and R b , at each occurrence, are independently selected from hydrogen and C 1 -C 3 alkyl; Q is selected from C 1 -C 6 -alkylene, C 1 -C 6 -hydroxyalkylene, and a group of formula: wherein n is 1, 2, 3, 4, 5, or 6; and each M is independently selected from hydrogen, an alkali metal cation, and NR 4 + , wherein each R is independently selected from hydrogen and C 1 -C 12 alkyl.
An auxiliary electronic controller of a mobile terminal , comprising: a main body having a seating portion configured to seat the mobile terminal at a top surface of the main body , and having a radiating structure disposed therein; a first holding portion shaped to accommodate a user grip and formed at one side of the main body ; and a second holding portion shaped to accommodate the user grip and hinge-coupled to another side facing the one side of the main body , wherein the second holding portion is configured to rotate to a bottom surface of the main body such that the second holding portion is in an opening state, and wherein the first holding portion includes a first control panel and the second holding portion includes a second control panel . a main body having a seating portion configured to seat the mobile terminal at a top surface of the main body , and having a radiating structure disposed therein; a first holding portion shaped to accommodate a user grip and formed at one side of the main body ; and a second holding portion shaped to accommodate the user grip and hinge-coupled to another side facing the one side of the main body , wherein the second holding portion is configured to rotate to a bottom surface of the main body such that the second holding portion is in an opening state, and wherein the first holding portion includes a first control panel and the second holding portion includes a second control panel .
Device for providing a sizeable, slender object having a longitudinal direction into an underwater bottom from a deck of a vessel , the device comprising: - a lifting means configured to take up the object at a lifting point thereof and position it on the underwater bottom ; - an upending tool configured to be connected to an edge of the vessel and configured to engage a first circumferential part of the object and support a lower end of the object for supporting the object in the longitudinal direction when suspended from the lifting means , thereby providing a pivot around which the object can be upended; and - a gripping tool comprising a gripping unit and a support frame , configured to be connected to an edge of the vessel , the gripping unit being configured to engage a second circumferential part of the object suspended from the lifting means while the first circumferential part is still engaged by the upending tool , and wherein the first and second circumferential parts are spaced apart in the longitudinal direction of the object ; wherein the device further comprises - an actuator system configured to act on the upending tool and the gripping tool and control movements of the first and the second circumferential parts , relative to the vessel , wherein the actuator system is configured to act on the gripping tool and translate the second circumferential part of the upended object relative to the vessel in a substantially horizontal plane, thereby compensating for vessel motions, such that the second circumferential part of the upended object is held in a substantially fixed position relative to the underwater bottom in the substantially horizontal plane. - a lifting means configured to take up the object at a lifting point thereof and position it on the underwater bottom ; - an upending tool configured to be connected to an edge of the vessel and configured to engage a first circumferential part of the object and support a lower end of the object for supporting the object in the longitudinal direction when suspended from the lifting means , thereby providing a pivot around which the object can be upended; and - a gripping tool comprising a gripping unit and a support frame , configured to be connected to an edge of the vessel , the gripping unit being configured to engage a second circumferential part of the object suspended from the lifting means while the first circumferential part is still engaged by the upending tool , and wherein the first and second circumferential parts are spaced apart in the longitudinal direction of the object ; - an actuator system configured to act on the upending tool and the gripping tool and control movements of the first and the second circumferential parts , relative to the vessel , wherein the actuator system is configured to act on the gripping tool and translate the second circumferential part of the upended object relative to the vessel in a substantially horizontal plane, thereby compensating for vessel motions, such that the second circumferential part of the upended object is held in a substantially fixed position relative to the underwater bottom in the substantially horizontal plane.
A method for assessing the risk of developing cervical cancer in a subject, comprising the step of detecting at least one single nucleotide polymorphism (SNP) marker selected from rs2046542, rs1386286, a combination of rs8067378 and rs1386286, a combination of rs4282438 and rs1386286, or a combination of rs8067378, rs4282438, and rs1386286 in the subject, wherein the presence of a risk allele as listed in Table 2 in at least one of the SNP markers is indicative of an increased risk for developing cervical cancer in the subject.
An induction heating type cooktop, comprising: a case ; a cover plate that is coupled to an upper end of the case and that includes an upper plate arranged to receive a target object (HO); a working coil (WC1, WC2) that is disposed in the case and that is configured to heat the target object (HO); a thermal insulation material disposed on the working coil (WC1, WC2); and characterized by a heating thin film coating (TL1, TL2) that is disposed on a surface of the upper plate or a surface of the thermal insulation material and that has a stacked structure in which an adhesive layer (TLA1) and a heating layer (TLH1) are consecutively stacked, wherein the adhesive layer (TLA1) is a component for attaching the upper plate or the thermal insulation material to the heating layer (TLH1) and includes at least one of an inorganic material or a metal oxide. a case ; a cover plate that is coupled to an upper end of the case and that includes an upper plate arranged to receive a target object (HO); a working coil (WC1, WC2) that is disposed in the case and that is configured to heat the target object (HO); a thermal insulation material disposed on the working coil (WC1, WC2); and characterized by a heating thin film coating (TL1, TL2) that is disposed on a surface of the upper plate or a surface of the thermal insulation material and that has a stacked structure in which an adhesive layer (TLA1) and a heating layer (TLH1) are consecutively stacked, wherein the adhesive layer (TLA1) is a component for attaching the upper plate or the thermal insulation material to the heating layer (TLH1) and includes at least one of an inorganic material or a metal oxide.
A device for authenticating a sample of a subject being tested, comprising: (a) a test plate that comprises a first plate and a second plate and spacers, wherein: i. the first plate and second plate are movable relative to each other into different configurations, including an open configuration and a closed configuration; and ii. the first plate and the second plate comprise a surface that has a sample contact area for receiving a sample of a subject that is being tested; and iii. the spacers are placed on one or both of the first plate and the second plate, (b) a camera that is configured, during a sample deposition in which the sample of the subject is directly deposited onto the sample contact area of the first plate, to capture at least one of: i. one or more images of the sample together with at least one biometric identifier associated with the subject, and ii. a video of a part or an entirety of the sample deposition, wherein the open configuration is the configuration in which the two plates are partially or entirely separated apart, and the sample is deposited on the sample contact area; and wherein the closed configuration is the configuration in which (i) the sample contact areas of the two plates are in contact with the sample, and (ii) the spacers regulate a spacing between the first plate and the second plate. (a) a test plate that comprises a first plate and a second plate and spacers, wherein: i. the first plate and second plate are movable relative to each other into different configurations, including an open configuration and a closed configuration; and ii. the first plate and the second plate comprise a surface that has a sample contact area for receiving a sample of a subject that is being tested; and iii. the spacers are placed on one or both of the first plate and the second plate, i. the first plate and second plate are movable relative to each other into different configurations, including an open configuration and a closed configuration; and ii. the first plate and the second plate comprise a surface that has a sample contact area for receiving a sample of a subject that is being tested; and iii. the spacers are placed on one or both of the first plate and the second plate, (b) a camera that is configured, during a sample deposition in which the sample of the subject is directly deposited onto the sample contact area of the first plate, to capture at least one of: i. one or more images of the sample together with at least one biometric identifier associated with the subject, and ii. a video of a part or an entirety of the sample deposition, i. one or more images of the sample together with at least one biometric identifier associated with the subject, and ii. a video of a part or an entirety of the sample deposition,
A control apparatus for a fuel supply apparatus for use in an engine system, the engine system including an engine including a fuel injection valve, and the fuel supply apparatus including a fuel pump configured to supply fuel from a fuel tank to a supply pipe connected to the fuel injection valve, and a relief valve provided in the supply pipe, the control apparatus for the fuel supply apparatus comprising an executor configured to execute, after the fuel is supplied to the fuel tank, relief pressure control for driving the fuel pump to open the relief valve until a predetermined termination condition is satisfied, wherein the predetermined termination condition is a condition that a cumulative value of amount of fuel injected to the engine via the fuel injection valve after the fuel is supplied to the fuel tank is equal to or larger than a predetermined value. the control apparatus for the fuel supply apparatus comprising an executor configured to execute, after the fuel is supplied to the fuel tank, relief pressure control for driving the fuel pump to open the relief valve until a predetermined termination condition is satisfied, wherein the predetermined termination condition is a condition that a cumulative value of amount of fuel injected to the engine via the fuel injection valve after the fuel is supplied to the fuel tank is equal to or larger than a predetermined value.
An auto-balancing transportation device , comprising: a first foot platform section having a first foot platform , a first wheel , a first drive motor and a first sensor ; a second foot platform section having a second foot platform , a second wheel , a second drive motor and a second sensor ; a control circuit that drives the first wheel towards auto-balancing the first foot platform section based on data from the first sensor and that drives the second wheel towards auto-balancing the second platform section based on data from the second sensor; and a coupling structure that couples the first foot platform section and the second foot platform section to one another such that the first and second platform sections are movable in fore-aft tilt relative to one another; and a battery ; wherein the coupling structure is configured to define a cavity that holds the battery, characterized in that the first wheel is entirely located vertically under the first foot platform and the second wheel is entirely located vertically under the second foot platform. a first foot platform section having a first foot platform , a first wheel , a first drive motor and a first sensor ; a second foot platform section having a second foot platform , a second wheel , a second drive motor and a second sensor ; a control circuit that drives the first wheel towards auto-balancing the first foot platform section based on data from the first sensor and that drives the second wheel towards auto-balancing the second platform section based on data from the second sensor; and a coupling structure that couples the first foot platform section and the second foot platform section to one another such that the first and second platform sections are movable in fore-aft tilt relative to one another; and a battery ; wherein the coupling structure is configured to define a cavity that holds the battery, characterized in that the first wheel is entirely located vertically under the first foot platform and the second wheel is entirely located vertically under the second foot platform.
An infant or follow-on formula comprising a proteinaceous composition comprising: a) 3.2-5.0 g threonine per 100 g protein; b) 0.7-1.1 g tryptophan per 100 g protein; c) a ratio of tryptophan to the sum of all neutral amino acids isoleucine, leucine, valine, phenylalanine, tyrosine, and methionine of from 0.030 to 0.025; and d) 5.0-7.8 g isoleucine per 100 g protein, 6.6-10.3 g leucine per 100 g protein, 6.2-9.7 g lysine per 100 g protein, 1.8-2.8 g methionine per 100 g protein, and 5.2-8.1 g valine per 100 g protein, wherein the formula comprises a protein intake level of: - 1.4 to 1.8 g of protein per 100 kcal of formula; or - 0.9 to 1.2 g of protein per 100 ml of formula. a) 3.2-5.0 g threonine per 100 g protein; b) 0.7-1.1 g tryptophan per 100 g protein; c) a ratio of tryptophan to the sum of all neutral amino acids isoleucine, leucine, valine, phenylalanine, tyrosine, and methionine of from 0.030 to 0.025; and d) 5.0-7.8 g isoleucine per 100 g protein, 6.6-10.3 g leucine per 100 g protein, 6.2-9.7 g lysine per 100 g protein, 1.8-2.8 g methionine per 100 g protein, and 5.2-8.1 g valine per 100 g protein, wherein the formula comprises a protein intake level of: - 1.4 to 1.8 g of protein per 100 kcal of formula; or - 0.9 to 1.2 g of protein per 100 ml of formula. - 1.4 to 1.8 g of protein per 100 kcal of formula; or - 0.9 to 1.2 g of protein per 100 ml of formula.
A rotor device for a vacuum pump, comprising a rotor shaft , and a plurality of rotor elements arranged in longitudinal direction on the rotor shaft , wherein the rotor elements contain aluminum, titanium and/or CFRP, characterized in that the rotor shaft contains a chromium-nickel steel with added sulfur and is particularly made of a chromium-nickel steel with added sulfur.