mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a frame; a boom pivotally interconnected to said frame, said boom being movable between a first position and a second position; a lever assembly pivotally connected to the boom, said lever assembly having a first portion and a second portion; an arm pivotally connected at one end to said first portion of said lever assembly and extending outwardly therefrom; a gripping means for gripping a surface of a tubular, said gripping means attached to an end of said arm that is opposite said one end of said arm; a hydraulic actuating means having one end affixed to said frame and an opposite end connected to said boom, said hydraulic actuating means for moving said boom between said first and second positions; and a pneumatic spring means (118, 120) having one end affixed to said frame and an opposite end connected to said boom, said pneumatic spring means for urging said boom from said first position to said second position and for resisting movement of said boom from said second position to said first position, the apparatus is characterised by a link pivotally connected to said second portion of said lever assembly at one end and pivotally connected to said frame at an end opposite to said one end of said link; a brace pivotally connected to said boom and pivotally connected to said arm. a frame; a boom pivotally interconnected to said frame, said boom being movable between a first position and a second position; a lever assembly pivotally connected to the boom, said lever assembly having a first portion and a second portion; an arm pivotally connected at one end to said first portion of said lever assembly and extending outwardly therefrom; a gripping means for gripping a surface of a tubular, said gripping means attached to an end of said arm that is opposite said one end of said arm; a hydraulic actuating means having one end affixed to said frame and an opposite end connected to said boom, said hydraulic actuating means for moving said boom between said first and second positions; and a pneumatic spring means (118, 120) having one end affixed to said frame and an opposite end connected to said boom, said pneumatic spring means for urging said boom from said first position to said second position and for resisting movement of said boom from said second position to said first position, the apparatus is characterised by a link pivotally connected to said second portion of said lever assembly at one end and pivotally connected to said frame at an end opposite to said one end of said link; a brace pivotally connected to said boom and pivotally connected to said arm.
Gas turbine comprising - a compressor for compressing an air mass flow flowing in an axial flow direction along the central longitudinal axis of the machine, and - a diffuser connected axially downstream of this compressor, which diffuser has a diffuser inlet and a plurality of air guiding elements and a diffuser outlet region, with a diffuser outlet, which is formed by a housing, wherein an air mass flow passes into the diffuser through the diffuser inlet and back out of the diffuser through the diffuser outlet, and in so doing flows away, owing to the air guiding elements, as a plurality of air mass part flows that are adjacent in the circumferential direction, also comprising - two mutually opposite can-type combustion chambers that are arranged radially further out, and - two opposite inflow ducts (15, 16) leading radially to the can-type combustion chambers, wherein the air mass flow leaving the diffuser can flow away, owing to the diffuser outlet region, into the inflow ducts (15, 16), characterized in that at least two immediately adjacent air guiding elements of the plurality of air guiding elements are configured in such a way that they have mutually different components of an outflow angle α n, measurable in the circumferential direction, relative to a circumferential face formed by the outlet opening of the diffuser outlet, wherein the inclination angles of the air guiding elements, chosen in relation to the circumferential face, are chosen in dependence on their respective circumferential position at the diffuser outlet, and wherein the outflow angle α n and/or the inclination angle of the air guiding elements in relation to a circumferential face formed by an outlet opening of the diffuser outlet are smaller the greater the distance between the respective air guiding element and a mouth opening (13, 14) of the inflow duct (15, 16). - a compressor for compressing an air mass flow flowing in an axial flow direction along the central longitudinal axis of the machine, and - a diffuser connected axially downstream of this compressor, which diffuser has a diffuser inlet and a plurality of air guiding elements and a diffuser outlet region, with a diffuser outlet, which is formed by a housing, wherein an air mass flow passes into the diffuser through the diffuser inlet and back out of the diffuser through the diffuser outlet, and in so doing flows away, owing to the air guiding elements, as a plurality of air mass part flows that are adjacent in the circumferential direction, also comprising - two mutually opposite can-type combustion chambers that are arranged radially further out, and - two opposite inflow ducts (15, 16) leading radially to the can-type combustion chambers, wherein the air mass flow leaving the diffuser can flow away, owing to the diffuser outlet region, into the inflow ducts (15, 16),
A semiconductor wafer having a plurality of semiconductor device die arranged in a grid pattern, the semiconductor wafer comprising: - a first semiconductor device die (110, 410, 510); - a second semiconductor device die (112, 412, 512), neighboring the first semiconductor device die in the grid pattern and separated from the first semiconductor device die by a dicing lane; and - a first conductor (450, 550) extending from a side of the first semiconductor device die into the dicing lane and extending toward the second semiconductor device die, entering the second semiconductor device die, and ending within a seal ring region of the second semiconductor device die, wherein the first conductor is formed such that a first region (458, 558) of the first conductor located nearer to the first semiconductor device die in the dicing lane has a lower tensile strength than a second region (455, 555) of the first conductor located nearer to the second semiconductor device die. - a first semiconductor device die (110, 410, 510); - a second semiconductor device die (112, 412, 512), neighboring the first semiconductor device die in the grid pattern and separated from the first semiconductor device die by a dicing lane; and - a first conductor (450, 550) extending from a side of the first semiconductor device die into the dicing lane and extending toward the second semiconductor device die, entering the second semiconductor device die, and ending within a seal ring region of the second semiconductor device die, wherein the first conductor is formed such that a first region (458, 558) of the first conductor located nearer to the first semiconductor device die in the dicing lane has a lower tensile strength than a second region (455, 555) of the first conductor located nearer to the second semiconductor device die.
Method for sorting micro- and nano-fibers in suspension in an aerosol likely to contain fibers of different sizes and possibly non-fibrous particles, comprising the following steps: a/ charging of the particles in suspension in the aerosol, by unipolar ion diffusion; b/ application of an electrical field between two electrically conductive surfaces of revolution, arranged with their axis vertical and defining a space between them; the electrical field being directed from the outer surface to the inner surface; c/ introduction of an aerosol flow from an input on top between the two surfaces of revolution; the flow of the air flow being non-turbulent in the space between surfaces of revolution; the air flow circulating from an input on top between the two surfaces of revolution to an output below, delimited by a tube arranged below between the two surfaces of revolution; c'/ simultaneously with the step c/, rotation at a given velocity of the surfaces of revolution and of the output tube; d/ recovery of the part of air flow charged with fibers and circulating inside the output tube; the fibers recovered in the part of air flow being separated from the non-fibrous particles initially present in the aerosol and ejected by the centrifugal force out of the output tube. a/ charging of the particles in suspension in the aerosol, by unipolar ion diffusion; b/ application of an electrical field between two electrically conductive surfaces of revolution, arranged with their axis vertical and defining a space between them; the electrical field being directed from the outer surface to the inner surface; c/ introduction of an aerosol flow from an input on top between the two surfaces of revolution; the flow of the air flow being non-turbulent in the space between surfaces of revolution; the air flow circulating from an input on top between the two surfaces of revolution to an output below, delimited by a tube arranged below between the two surfaces of revolution; c'/ simultaneously with the step c/, rotation at a given velocity of the surfaces of revolution and of the output tube; d/ recovery of the part of air flow charged with fibers and circulating inside the output tube; the fibers recovered in the part of air flow being separated from the non-fibrous particles initially present in the aerosol and ejected by the centrifugal force out of the output tube.
A medical imaging system, comprising: an x-ray source having a focal spot that is adapted to emit radiation that traverses an examination region, wherein a position of the focal spot along a longitudinal direction is a function of a temperature of one or more x-ray source components; a detector that is adapted to detect the radiation; a collimator disposed between the x-ray source and the examination region that is adapted to collimate the radiation along the longitudinal direction; a focal spot position estimator that is adapted to compute dynamically an estimated position of the focal spot along the longitudinal direction based on a determined temperature of one or more x-ray source components, said focal spot position estimator including a temperature determiner, wherein the determined temperature is determined by the temperature determiner based on a thermal property of the one or more x-ray source components and a previously determined temperature of the one or more x-ray source components; and a collimator positioner configured to position the collimator along the longitudinal direction based on the estimated focal spot position prior to performing a scan. an x-ray source having a focal spot that is adapted to emit radiation that traverses an examination region, wherein a position of the focal spot along a longitudinal direction is a function of a temperature of one or more x-ray source components; a detector that is adapted to detect the radiation; a collimator disposed between the x-ray source and the examination region that is adapted to collimate the radiation along the longitudinal direction; a focal spot position estimator that is adapted to compute dynamically an estimated position of the focal spot along the longitudinal direction based on a determined temperature of one or more x-ray source components, said focal spot position estimator including a temperature determiner, wherein the determined temperature is determined by the temperature determiner based on a thermal property of the one or more x-ray source components and a previously determined temperature of the one or more x-ray source components; and a collimator positioner configured to position the collimator along the longitudinal direction based on the estimated focal spot position prior to performing a scan.
A method of operating a compression ignition engine fuelled with a combination of a hydrocarbon fuel and hydrogen and having at least one combustion chamber provided with a glow plug, the method comprising, during a cold start: activating the glow plug; fuelling the engine with the hydrocarbon fuel alone whilst starting; deactivating the glow plug when a sensed engine temperature reaches a predetermined threshold value which is below a normal engine operating temperature; after deactivation of the glow plug, implementing a delay prior to commencement of hydrogen supply to the engine, during which the engine continues to be fuelled with the hydrocarbon fuel alone; after the delay, commencing hydrogen supply to the engine; and progressively increasing the proportion of hydrogen to the hydrocarbon fuel over time as the engine warms whilst running. activating the glow plug; fuelling the engine with the hydrocarbon fuel alone whilst starting; deactivating the glow plug when a sensed engine temperature reaches a predetermined threshold value which is below a normal engine operating temperature; after deactivation of the glow plug, implementing a delay prior to commencement of hydrogen supply to the engine, during which the engine continues to be fuelled with the hydrocarbon fuel alone; after the delay, commencing hydrogen supply to the engine; and progressively increasing the proportion of hydrogen to the hydrocarbon fuel over time as the engine warms whilst running.
A method for manufacturing parts produced with a manufacturing device, based on an analysis of at least one statistical indicator representative of a characteristic dimension of the parts, comprising the following automated steps consisting in: a) taking over time several samples, each sample comprising several parts produced with the manufacturing device; b) measuring, with a measuring device, the characteristic dimension of each part of the sample; c) calculating, with a calculation device, an average μ and a standard deviation σ of the characteristic dimension measured for each sample taken, then for each sample taken a value of a statistical indicator I3C, as defined according to the formula: I 3 C = M i n C c m a x ∗ T S − μ; μ − C c m a x ∗ T I 3 σ where: ∘ Cc max is a maximal centring coefficient imposed for manufacturing parts; ∘ TS is an upper tolerance of the characteristic dimension measured; ∘ TI is a lower tolerance of the characteristic dimension measured; d) comparing, with a regulating device, the value of the statistical indicator I3C calculated in this way for the sample taken to a reference value in order to detect any standard deviation between the value of the statistical indicator and the reference value; e) regulating, with the regulating device, the manufacturing of parts as a function of results of comparison by adjusting regulating parameters of the manufacturing device to optimise the deviation between the value of the statistical indicator I3C and the reference value. a) taking over time several samples, each sample comprising several parts produced with the manufacturing device; b) measuring, with a measuring device, the characteristic dimension of each part of the sample; c) calculating, with a calculation device, an average μ and a standard deviation σ of the characteristic dimension measured for each sample taken, then for each sample taken a value of a statistical indicator I3C, as defined according to the formula: I 3 C = M i n C c m a x ∗ T S − μ; μ − C c m a x ∗ T I 3 σ where: ∘ Cc max is a maximal centring coefficient imposed for manufacturing parts; ∘ TS is an upper tolerance of the characteristic dimension measured; ∘ TI is a lower tolerance of the characteristic dimension measured; ∘ Cc max is a maximal centring coefficient imposed for manufacturing parts; ∘ TS is an upper tolerance of the characteristic dimension measured; ∘ TI is a lower tolerance of the characteristic dimension measured; d) comparing, with a regulating device, the value of the statistical indicator I3C calculated in this way for the sample taken to a reference value in order to detect any standard deviation between the value of the statistical indicator and the reference value; e) regulating, with the regulating device, the manufacturing of parts as a function of results of comparison by adjusting regulating parameters of the manufacturing device to optimise the deviation between the value of the statistical indicator I3C and the reference value.
Brake actuator for a braking system of a vehicle, especially a rail vehicle, which is suitably configured to acquire a wheel slide protection corrected braking target value (SGleit) from a brake control or has a wheel slide protection correction device, which is suitably configured for correcting a target brake value (SSoll) acquired by the brake control by means of a reduction signal of a wheel slide protection control device to the wheel slide protection corrected braking target value (SGleit). characterised by a wheel slide protection monitoring device, at which the wheel slide protection corrected braking target value (SGleit) and the target brake value (SSoll) are available and which is suitably configured, under at least one predefined first switching condition ([a], [b], [c], [d]), to switch from a first position into a second position and, under at least one predefined first switching condition ([e]), to switch from the second position back to the first position, wherein in the first position the wheel slide protection corrected braking target value (SGleit) and in the second position the target brake value (SSoll) is provided as reference target value (SFührung) at an output of the wheel slide protection monitoring device.
A method performed by a user equipment, UE, (205, 500), the method comprising: sending a service request, wherein the service request requires a service fallback to at least one of: a different radio access technology, RAT, and a different core network, CN; receiving a connection release message, where the connection release message includes redirection information for the service fallback, the redirection information including a target core network, CN, type and a target RAT cell identifier; initiating a non-access stratum, NAS, procedure, using a NAS protocol according to the target CN type; initiating an access stratum, AS, procedure to accomplish radio mobility in a target RAT cell identified by the target RAT cell identifier; and connecting to the target CN type and the target RAT cell. sending a service request, wherein the service request requires a service fallback to at least one of: a different radio access technology, RAT, and a different core network, CN; receiving a connection release message, where the connection release message includes redirection information for the service fallback, the redirection information including a target core network, CN, type and a target RAT cell identifier; initiating a non-access stratum, NAS, procedure, using a NAS protocol according to the target CN type; initiating an access stratum, AS, procedure to accomplish radio mobility in a target RAT cell identified by the target RAT cell identifier; and connecting to the target CN type and the target RAT cell.
A nitazoxanide pharmaceutical composition suitable for the treatment of intestinal parasitic infections by oral administration in the form of a suspension, containing: (a) an immediate release moiety in the form of nitazoxanide-containing non-coated granules; or nitazoxanide-containing non-granulated powder; and (b) a pH-dependent release moiety in the form of nitazoxanide-containing granules coated by one or more polymers with pH-dependent solubility, chosen from hydroxypropyl methylcellulose phthalate, hydroxypropyl methylcellulose acetate succinate and methacrylic acid copolymers. (a) an immediate release moiety in the form of nitazoxanide-containing non-coated granules; or nitazoxanide-containing non-granulated powder; and (b) a pH-dependent release moiety in the form of nitazoxanide-containing granules coated by one or more polymers with pH-dependent solubility, chosen from hydroxypropyl methylcellulose phthalate, hydroxypropyl methylcellulose acetate succinate and methacrylic acid copolymers.
A solder paste comprising a metal powder component mixed with a flux component, characterized in that: - the metal powder component consists of a first metal, a second metal and a third metal with at least a portion of the third metal being in the form of a metal powder of the third metal; - the first metal is Bi or a Bi alloy; - the second metal has a function of reducing the solidus temperature of the first metal and forming an intermetallic compound with the third metal, the second metal being at least one selected from the group consisting of Sn, In, and their alloys; - the third metal being at least one selected from the group consisting of Cu, Ag, Sb, Ni, Fe, Co, Pd, Pt, Ti, Cu-Ag alloys, and Cu-Sb alloys - optionally, when the first and second metal are alloyed with each other, the total amount of the first and second metal is taken as the amount of the first and second metals, - optionally, the third metal may be alloyed with the first metal, and in such a case at least a portion of the third metal is incorporated into the metal powder component in the form of powder of a third metal, which can form an intermetallic compound with the second metal, and the metal powder component comprising 0.7-6 mass % of the second metal, 1.3-10 mass % of the third metal, and a balance of the first metal with respect to 100 mass % of the metal powder component. - the metal powder component consists of a first metal, a second metal and a third metal with at least a portion of the third metal being in the form of a metal powder of the third metal; - the first metal is Bi or a Bi alloy; - the second metal has a function of reducing the solidus temperature of the first metal and forming an intermetallic compound with the third metal, the second metal being at least one selected from the group consisting of Sn, In, and their alloys; - the third metal being at least one selected from the group consisting of Cu, Ag, Sb, Ni, Fe, Co, Pd, Pt, Ti, Cu-Ag alloys, and Cu-Sb alloys - optionally, when the first and second metal are alloyed with each other, the total amount of the first and second metal is taken as the amount of the first and second metals, - optionally, the third metal may be alloyed with the first metal, and in such a case at least a portion of the third metal is incorporated into the metal powder component in the form of powder of a third metal, which can form an intermetallic compound with the second metal, and the metal powder component comprising 0.7-6 mass % of the second metal, 1.3-10 mass % of the third metal, and a balance of the first metal with respect to 100 mass % of the metal powder component.