mhurhangee/patent-ind-claim-en huggingface dataset:
An airfoil for a gas turbine engine comprising: an airfoil section having an internal wall and an external wall , the external wall defining pressure and suction sides (P, S) extending in a chordwise direction (C) between a leading edge and a trailing edge ; a first impingement cavity and a second impingement cavity bounded by the external wall at a leading edge region that defines the leading edge ; a first feeding cavity separated from the first impingement cavity and from the second impingement cavity by the internal wall ; a first crossover passage within the internal wall that connects the first impingement cavity and the first feeding cavity , wherein the first crossover passage defines a first passage axis (PA A ) that intersects a surface of the first impingement cavity ; and a second crossover passage within the internal wall connected to the second impingement cavity , wherein the second crossover passage defines a second passage axis (PA B ) that intersects a surface of the second impingement cavity , wherein the first crossover passage extends between a first inlet and a first outlet , the second crossover passage extends between a second inlet and a second outlet , and the first inlet is forward of the second outlet with respect to the chordwise direction (C), characterised in that the second crossover passage connects the second impingement cavity and a second feeding cavity , the second feeding cavity separated from the first impingement cavity and from the second impingement cavity by the internal wall . an airfoil section having an internal wall and an external wall , the external wall defining pressure and suction sides (P, S) extending in a chordwise direction (C) between a leading edge and a trailing edge ; a first impingement cavity and a second impingement cavity bounded by the external wall at a leading edge region that defines the leading edge ; a first feeding cavity separated from the first impingement cavity and from the second impingement cavity by the internal wall ; a first crossover passage within the internal wall that connects the first impingement cavity and the first feeding cavity , wherein the first crossover passage defines a first passage axis (PA A ) that intersects a surface of the first impingement cavity ; and a second crossover passage within the internal wall connected to the second impingement cavity , wherein the second crossover passage defines a second passage axis (PA B ) that intersects a surface of the second impingement cavity , wherein the first crossover passage extends between a first inlet and a first outlet , the second crossover passage extends between a second inlet and a second outlet , and the first inlet is forward of the second outlet with respect to the chordwise direction (C), characterised in that the second crossover passage connects the second impingement cavity and a second feeding cavity , the second feeding cavity separated from the first impingement cavity and from the second impingement cavity by the internal wall .
A method of operating a pile driving assembly which comprises a tubular pile and a hammer for driving the pile into an underwater bottom (B), wherein the assembly is provided with a soil remover for removing soil inside the pile , which soil remover is located below the hammer and remote from a lower end of the pile in assembled operating condition, wherein the soil remover is located at an upper end portion of the pile , characterized in that a large portion of the pile is driven into the underwater bottom (B) without dislodging the bottom inside the pile , wherein the soil remover loosens soil within the upper portion of the pile as soon as the upper portion of the pile approaches the bottom and the soil remover removes soil only during driving the upper portion of the pile into the Z underwater bottom (B).
A method to manufacture an improved exciter for a generator, said exciter comprising an exciter rotor and an exciter stator, the exciter rotor and the exciter stator each being formed of a respective set of laminations, of a same electrical steel comprising the steps of: Providing a coil of cold rolled electrical steel which after cold-rolling was not subsequently annealed, said electrical steel being full hard which is a condition of the electrical steel following cold rolling, and prior to a subsequent anneal, beyond which there is no further change in hardness or tensile strength of the steel, said steel comprising the following elements in weight percent along with iron and impurities Carbon less than 0.04% Manganese 0.10% to 1.5% Phosphorus 0.005% to 0.12% Silicon greater than 0.60% to 1.60% Aluminum 0.05% to 1.0% Optional Tin or antimony may be added to a max of 0.12% Iron and conventional impurities formed in normal steelmaking practices as a balance; without a prior annealing of the full hard cold rolled steel coil slitting the coil to create at least one strip; stamping the at least one strip to create a plurality of exciter rotor laminations and a plurality of exciter stator laminations from the same strip; separating the exciter rotor laminations from the exciter stator laminations and creating said set of exciter rotor laminations and said set of exciter stator laminations; annealing only said set of exciter rotor laminations; and assembling the annealed set of exciter rotor laminations to create said exciter rotor and assembling the set of not annealed stator laminations to create said exciter stator. Providing a coil of cold rolled electrical steel which after cold-rolling was not subsequently annealed, said electrical steel being full hard which is a condition of the electrical steel following cold rolling, and prior to a subsequent anneal, beyond which there is no further change in hardness or tensile strength of the steel, said steel comprising the following elements in weight percent along with iron and impurities Carbon less than 0.04% Manganese 0.10% to 1.5% Phosphorus 0.005% to 0.12% Silicon greater than 0.60% to 1.60% Aluminum 0.05% to 1.0% Optional Tin or antimony may be added to a max of 0.12% Iron and conventional impurities formed in normal steelmaking practices as a balance; without a prior annealing of the full hard cold rolled steel coil slitting the coil to create at least one strip; stamping the at least one strip to create a plurality of exciter rotor laminations and a plurality of exciter stator laminations from the same strip; separating the exciter rotor laminations from the exciter stator laminations and creating said set of exciter rotor laminations and said set of exciter stator laminations; annealing only said set of exciter rotor laminations; and assembling the annealed set of exciter rotor laminations to create said exciter rotor and assembling the set of not annealed stator laminations to create said exciter stator.
An electrochemical cell comprising an electrode , the electrode comprising a substrate (4; 20) on which is located a porous layer of a conducting oxide and having located thereon Ferredoxin NADP Reductase (FNR) .
A forming structure having an outer surface configured to receive a polymer web, an inner surface , a thickness (t) between the outer surface and the inner surface , and a plurality of openings extending through the thickness (t) at an acute angle (β) relative to a plane tangential to the outer surface , each of the plurality of openings having a shape at the outer surface defined by a first ellipse having a first major axis and a first minor axis , and a second ellipse having a second major axis and a second minor axis , the first major axis substantially parallel to a machine direction and coinciding with the second minor axis , the second major axis substantially parallel to a transverse direction orthogonal to the machine direction and offset from the first minor axis .
Method for monitoring military tactical simulations performed by one or more users, each user having at least one weapon, said method comprising the following steps: - receiving from two or more video capture devices , two or more videos related to a tactical simulation; - saving said received videos; - temporally synchronizing said videos; - forwarding, rewinding, and playing said videos by keeping them synchronized between them, so that the frames showing a specific time instant and coming from all said capture devices can be displayed essentially at the same time instant, so to be able to simultaneously analyse all said frames relating to said tactical simulation, said method being characterized in comprising one tracking step of the pointing direction of the weapon, by checking first IT product means for identifying and tracking the pointing direction of the one or more weapons on all said temporally synchronized videos, and the pointing direction of the user who controls the weapon, by checking second IT product means for identifying and tracking the pointing direction of the users on all said temporally synchronized videos, to check if they coincide so as to allows an operator to determine if the user shoots in safe conditions and if any hit is random or wanted, said method comprising also a detection step of predetermined events, the predetermined events being a user being hit or a weapon being fired, and, after said detection step, a storage step of the time instant of said event so as to allow the visualization, by selecting said time instant, of the same frame from all said capture devices at the time instant of said event and to perform said tracking step of the pointing direction of the weapon and the pointing direction of the user who controls the weapon. - receiving from two or more video capture devices , two or more videos related to a tactical simulation; - saving said received videos; - temporally synchronizing said videos; - forwarding, rewinding, and playing said videos by keeping them synchronized between them, so that the frames showing a specific time instant and coming from all said capture devices can be displayed essentially at the same time instant, so to be able to simultaneously analyse all said frames relating to said tactical simulation,
A solid-state image pickup device in which a normal pixel that generates a pixel signal of an image and a phase-difference detection pixel that generates a pixel signal used in calculation of a phase-difference signal for controlling an image-surface phase difference auto focus function are arranged in a mixed manner, wherein in the phase-difference detection pixels , a shared on-chip lens for condensing incident light to each of photoelectric converter that generates a pixel signal used in calculation of the phase-difference signal is formed for every two adjacent phase-difference detection pixels , and characterized in that the solid-state image pickup device comprises 4 ∗ 3 pixels arranged in a matrix of pixels, the 4 ∗ 3 pixels consisting of two phase-difference detection pixels at a center of the matrix and ten normal pixels being adjacent to at least one of the two phase-difference detection pixels and surrounding the two phase-difference detection pixels . in the phase-difference detection pixels , a shared on-chip lens for condensing incident light to each of photoelectric converter that generates a pixel signal used in calculation of the phase-difference signal is formed for every two adjacent phase-difference detection pixels , and characterized in that the solid-state image pickup device comprises 4 ∗ 3 pixels arranged in a matrix of pixels, the 4 ∗ 3 pixels consisting of two phase-difference detection pixels at a center of the matrix and ten normal pixels being adjacent to at least one of the two phase-difference detection pixels and surrounding the two phase-difference detection pixels .
A method for reporting, by a user equipment, channel state information, CSI, in a wireless communication system, the method comprising: receiving (S13010) configuration information related to reporting of the CSI from a base station, wherein the configuration information includes a threshold value related with a specific condition for CSI reporting, and wherein the CSI comprises a first part and a second part, wherein the second part of the CSI is divided into a wideband CSI and a subband CSI, and wherein the wideband CSI included in the second part of the CSI has a higher priority than the subband CSI included in the second part of the CSI, such that the wideband CSI is set to be omitted last; receiving (S13020) a first reference signal for channel measurement; measuring (S13030) a channel based on the first reference signal; and reporting (S13040) the CSI of the measured channel to the base station, wherein some or all of the second part of the CSI is omitted based on the specific condition. receiving (S13010) configuration information related to reporting of the CSI from a base station, wherein the configuration information includes a threshold value related with a specific condition for CSI reporting, and wherein the CSI comprises a first part and a second part, wherein the second part of the CSI is divided into a wideband CSI and a subband CSI, and wherein the wideband CSI included in the second part of the CSI has a higher priority than the subband CSI included in the second part of the CSI, such that the wideband CSI is set to be omitted last; receiving (S13020) a first reference signal for channel measurement; measuring (S13030) a channel based on the first reference signal; and reporting (S13040) the CSI of the measured channel to the base station, wherein some or all of the second part of the CSI is omitted based on the specific condition.
Apparatus for fixing two running rails for a transport vehicle to a plurality of fastening brackets , said fastening brackets projecting upwards from a supporting structure and being spaced apart from one another in the intended longitudinal direction of the running rails and being arranged in such a way that an outer side of the first running rail is able to be made to abut against a first group of the plurality of fastening brackets simultaneously and an outer side of the second running rail is able to be made to abut against a second group of the plurality of fastening brackets simultaneously, wherein a spacing between a fastening bracket of the first group and a fastening bracket of the second group in a transverse direction is adapted to an intended track width of the running rails , characterized in that the apparatus has: - at least one running roller for rolling of the apparatus on a running surface of the running rails which have been pre-aligned in the intended longitudinal direction, - a positioning unit having at least one first inner positioning element for abutment against an inner surface of the first running rail and having a second inner positioning element for abutment against an inner surface of the second running rail , - a connecting unit which is configured to produce a connection between the fastening brackets and the respective running rails when the apparatus has been mounted onto the two pre-aligned running rails . - at least one running roller for rolling of the apparatus on a running surface of the running rails which have been pre-aligned in the intended longitudinal direction, - a positioning unit having at least one first inner positioning element for abutment against an inner surface of the first running rail and having a second inner positioning element for abutment against an inner surface of the second running rail , - a connecting unit which is configured to produce a connection between the fastening brackets and the respective running rails when the apparatus has been mounted onto the two pre-aligned running rails .
Air inlet for an aircraft nacelle, comprising a front frame and a lip (10; 30) which together form a duct with D-shaped section receiving hot air, the front frame being arranged in an advanced position inside the lip, characterized in that : - the lip (10; 30) has de-icing grooves (12; 32), each de-icing groove communicating with the duct with D-shaped section and having a downstream part extending downstream of the front frame ; - downstream of the front frame outside of the de-icing grooves (12; 32), the lip (10; 30) has perforated zones (13; 33) provided with sound absorption holes (16; 36); - the air inlet comprises a foil (11; 31), which covers and hermetically seals at least the downstream part of the de-icing grooves, the foil being provided with sound absorption holes (17; 37) facing the perforated zones (13; 33) and being solid facing the de-icing grooves (12; 32); - the air inlet comprises acoustic panels inside the lip downstream of the front frame at least facing the perforated zones (13; 33). - the lip (10; 30) has de-icing grooves (12; 32), each de-icing groove communicating with the duct with D-shaped section and having a downstream part extending downstream of the front frame ; - downstream of the front frame outside of the de-icing grooves (12; 32), the lip (10; 30) has perforated zones (13; 33) provided with sound absorption holes (16; 36); - the air inlet comprises a foil (11; 31), which covers and hermetically seals at least the downstream part of the de-icing grooves, the foil being provided with sound absorption holes (17; 37) facing the perforated zones (13; 33) and being solid facing the de-icing grooves (12; 32); - the air inlet comprises acoustic panels inside the lip downstream of the front frame at least facing the perforated zones (13; 33).
A compound of Formula I for use in treating hypercholesterolemia, hypocholesterolemia, cardiovascular disease or a metabolic disease: wherein i) R 1 and R 2 are independently selected from the group consisting of H, C 1-6 alkyl, halo, - OH, and amino; ii) R 3 is selected from the group consisting of H, C 1-6 alkyl, halo, haloalkyl, hydroxylalkyl, alkoxyl, and nitrile; iii) R 4 is selected from the group consisting of H and -OH; iv) R 5 is selected from the group consisting of alkyl, branched alkyl, aryl substituted alkyl, cycloalkyl, hydroxyalkyl, alkoxyalkyl, haloalkyl, and an amino acid, wherein the amino acid is an L- or D- isomer of the formula -CHR 6 -CON-R 7 wherein i) R 6 is selected from the group consisting of natural or unnatural peptide side chains; ii) R 7 is selected from the group consisting of alkyl, branched alkyl, cycloalkyl, and heterocycle; v) X 1 through X 5 are selected independently from the group of C and N; vi) W is C, CH, or N, wherein when W is C then Y is CH 2 thereby forming a saturated 5 membered ring; or a pharmaceutically acceptable salt, hydrate, or solvate thereof. i) R 1 and R 2 are independently selected from the group consisting of H, C 1-6 alkyl, halo, - OH, and amino; ii) R 3 is selected from the group consisting of H, C 1-6 alkyl, halo, haloalkyl, hydroxylalkyl, alkoxyl, and nitrile; iii) R 4 is selected from the group consisting of H and -OH; iv) R 5 is selected from the group consisting of alkyl, branched alkyl, aryl substituted alkyl, cycloalkyl, hydroxyalkyl, alkoxyalkyl, haloalkyl, and an amino acid, wherein the amino acid is an L- or D- isomer of the formula -CHR 6 -CON-R 7 wherein i) R 6 is selected from the group consisting of natural or unnatural peptide side chains; ii) R 7 is selected from the group consisting of alkyl, branched alkyl, cycloalkyl, and heterocycle; v) X 1 through X 5 are selected independently from the group of C and N; vi) W is C, CH, or N, wherein when W is C then Y is CH 2 thereby forming a saturated 5 membered ring;
Separation element configured to separate a working chamber from a compensation chamber of a hydraulic anti-vibration module configured for mounting an engine on a vehicle body, comprising a first duct extending between a first mouth and a second mouth, wherein the first mouth is created in a first face of the separation element and is configured to be fluidically connected to the working chamber , wherein the second mouth is created in a second face of the separation element and is configured to be fluidically connected to the compensation chamber , and wherein the first mouth comprises a plurality of openings, characterized in that there is a second duct extending between a third mouth , arranged on the first face of the separation element and configured to be fluidically connected to the working chamber , and a fourth mouth, arranged on the second face of the separation element and configured to be fluidically connected to the compensation chamber , wherein preferably the third mouth comprises a single opening, and wherein more preferably a diameter of the opening of the third mouth is larger than a diameter of any one of the openings of the first mouth .. a first duct extending between a first mouth and a second mouth, wherein the first mouth is created in a first face of the separation element and is configured to be fluidically connected to the working chamber , wherein the second mouth is created in a second face of the separation element and is configured to be fluidically connected to the compensation chamber , and wherein the first mouth comprises a plurality of openings, characterized in that there is a second duct extending between a third mouth , arranged on the first face of the separation element and configured to be fluidically connected to the working chamber , and a fourth mouth, arranged on the second face of the separation element and configured to be fluidically connected to the compensation chamber , wherein preferably the third mouth comprises a single opening, and wherein more preferably a diameter of the opening of the third mouth is larger than a diameter of any one of the openings of the first mouth ..
A fluid monitoring device, comprising: an absorbent layer , wherein the absorbent layer is configured to be in proximity to flow of vaginal fluid; an electrochemical detection system configured to obtain data regarding at least one analyte in the vaginal fluid, said electrochemical detection system in fluid communication with the absorbent layer ; a fluid-impermeable layer disposed between the absorbent layer and the electrochemical detection system , the fluid-impermeable layer comprising one or more fluidic pathways for directing a vaginal fluid to the electrochemical detection system , wherein the fluid-impermeable layer comprises one or more inlets in fluid communication with the absorbent layer , and wherein the fluid monitoring device is configured to be coupled with a feminine hygiene product or a diaper or an adult incontinence product. an absorbent layer , wherein the absorbent layer is configured to be in proximity to flow of vaginal fluid; an electrochemical detection system configured to obtain data regarding at least one analyte in the vaginal fluid, said electrochemical detection system in fluid communication with the absorbent layer ; a fluid-impermeable layer disposed between the absorbent layer and the electrochemical detection system , the fluid-impermeable layer comprising one or more fluidic pathways for directing a vaginal fluid to the electrochemical detection system , wherein the fluid-impermeable layer comprises one or more inlets in fluid communication with the absorbent layer , and wherein the fluid monitoring device is configured to be coupled with a feminine hygiene product or a diaper or an adult incontinence product.