mhurhangee/ep-ind-claims huggingface dataset:
A valve, comprising: a body having a body passage therethrough intersected by a cavity, and having an adapter plate; a valve element having a valve element passage and being rotatably carried in the cavity for movement between an open position with the valve element and body passages (25, 15) aligned, and a closed position; a drive mechanism having an input sleeve with a bore; a drive mechanism housing enclosing the drive mechanism, the drive mechanism housing having a base that is secured to the adapter plate, and a face with an aperture surrounding an outer end of an output shaft, the input sleeve having an outer end which protrudes through the aperture past the face; the output shaft being located within the bore of the input sleeve, the output shaft having an inner end cooperatively coupled with the valve element for rotating the valve element in response to rotation of the output shaft, and an outer end extending through the aperture in the drive mechanism housing; a shear member located between the input sleeve and the output shaft, the shear member allowing rotation of the input sleeve relative to the output shaft if the shear member shears; indicia on the face of the drive mechanism housing, adjacent the aperture, indicating open and closed positions for the valve element; and an indicator on the outer end of the output shaft, arranged to rotate in unison with the output shaft, that aligns with the indicia to indicate the position of the valve element. a body having a body passage therethrough intersected by a cavity, and having an adapter plate; a valve element having a valve element passage and being rotatably carried in the cavity for movement between an open position with the valve element and body passages (25, 15) aligned, and a closed position; a drive mechanism having an input sleeve with a bore; a drive mechanism housing enclosing the drive mechanism, the drive mechanism housing having a base that is secured to the adapter plate, and a face with an aperture surrounding an outer end of an output shaft, the input sleeve having an outer end which protrudes through the aperture past the face; the output shaft being located within the bore of the input sleeve, the output shaft having an inner end cooperatively coupled with the valve element for rotating the valve element in response to rotation of the output shaft, and an outer end extending through the aperture in the drive mechanism housing; a shear member located between the input sleeve and the output shaft, the shear member allowing rotation of the input sleeve relative to the output shaft if the shear member shears; indicia on the face of the drive mechanism housing, adjacent the aperture, indicating open and closed positions for the valve element; and an indicator on the outer end of the output shaft, arranged to rotate in unison with the output shaft, that aligns with the indicia to indicate the position of the valve element.
A method of determining a destination for a transportation service, the method being implemented on a computing device having at least one processor, at least one non-transitory computer-readable storage medium, and a communication platform connected to a network, comprising: receiving, from a passenger terminal device, a service request information of a passenger encoded in first electrical signals, wherein the service request information includes a departure location of the passenger; operating logical circuits in the at least one processor to obtain historical service request information related to the passenger; and operating the logical circuits in the at least one processor to determine travel-route-related information based at least in part on the departure location of the passenger and the historical service request information, wherein to determine travel-route-related information based at least in part on the departure location of the passenger and the historical service request information, further includes operating the logic circuits to calculate a degree of correlation between the departure location and each departure location recorded in the historical service request information; and determine a destination of the travel-route-related information based on the degree of correlation. receiving, from a passenger terminal device, a service request information of a passenger encoded in first electrical signals, wherein the service request information includes a departure location of the passenger; operating logical circuits in the at least one processor to obtain historical service request information related to the passenger; and operating the logical circuits in the at least one processor to determine travel-route-related information based at least in part on the departure location of the passenger and the historical service request information, wherein to determine travel-route-related information based at least in part on the departure location of the passenger and the historical service request information, further includes operating the logic circuits to calculate a degree of correlation between the departure location and each departure location recorded in the historical service request information; and determine a destination of the travel-route-related information based on the degree of correlation. calculate a degree of correlation between the departure location and each departure location recorded in the historical service request information; and determine a destination of the travel-route-related information based on the degree of correlation.
A method for preventing the formation of agglomerates of hydrates in a mixture of fluids comprising water, liquid hydrocarbon and gas, the method comprising the steps of: providing a hydrate inhibitor composition comprising a sulfolane derivative having the following structure: wherein R is a group selected from the group consisting of an alkyl chain, an alkenyl chain, an aryl chain, an arylalkyl chain, an arylalkenyl chain, an alkylaryl chain, an alkenylaryl chain, an amine, an amide, a sulfonamide, a phosphor amide, an acyl, an imide, an ethoxylated chain, a propoxylated chain, an alkylamino group, and a glycol group; and injecting the hydrate inhibitor composition into a well or pipeline having the mixture of fluids in an amount sufficient to form a flowable mixture comprising the mixture of fluids and the sulfolane derivative with a concentration in a range from 0.1 wt.% to 5 wt.% based on the water content in the flowable mixture so as to prevent the formation of agglomerates of hydrates in the mixture of fluids. providing a hydrate inhibitor composition comprising a sulfolane derivative having the following structure: wherein R is a group selected from the group consisting of an alkyl chain, an alkenyl chain, an aryl chain, an arylalkyl chain, an arylalkenyl chain, an alkylaryl chain, an alkenylaryl chain, an amine, an amide, a sulfonamide, a phosphor amide, an acyl, an imide, an ethoxylated chain, a propoxylated chain, an alkylamino group, and a glycol group; and injecting the hydrate inhibitor composition into a well or pipeline having the mixture of fluids in an amount sufficient to form a flowable mixture comprising the mixture of fluids and the sulfolane derivative with a concentration in a range from 0.1 wt.% to 5 wt.% based on the water content in the flowable mixture so as to prevent the formation of agglomerates of hydrates in the mixture of fluids.
An apparatus for Flash X-ray irradiation of material, comprising: a) a Flash X-ray source comprising an electron source (111,112) and an anode (115, 116); b) the electron source comprising a field-emission cold-cathode having an electron emitting surface, and a grid (113, 114) for controlling electron flow from the cathode to the anode; an electrical connection for biasing the grid; c) the anode having an electron-receiving main surface and an X-ray emitting, oppositely facing main surface; the X-ray emitting surface emitting X-radiation into an irradiation volume; d) the X-ray emitting surface of the anode having orthogonally oriented first and second dimensions of greater than 2 millimeters each; e) a high voltage pulse power supply for powering the Flash X-ray source; the high voltage pulse power supply including an input terminal and an output terminal and a circuit including one or more cold cathode field emission electron triodes (150a,150b,150c,150d;150e,150g) between the input terminal and the output terminal; f) the electron source, anode and high voltage pulse power supply creating X-radiation in said irradiation volume to irradiate material in said volume, whereby said material is ionized and molecular bonds in organic compounds contained in said material are broken; and g) a vacuum housing for the cathode, grid and anode of the Flash X-ray source maintained at a vacuum. a) a Flash X-ray source comprising an electron source (111,112) and an anode (115, 116); b) the electron source comprising a field-emission cold-cathode having an electron emitting surface, and a grid (113, 114) for controlling electron flow from the cathode to the anode; an electrical connection for biasing the grid; c) the anode having an electron-receiving main surface and an X-ray emitting, oppositely facing main surface; the X-ray emitting surface emitting X-radiation into an irradiation volume; d) the X-ray emitting surface of the anode having orthogonally oriented first and second dimensions of greater than 2 millimeters each; e) a high voltage pulse power supply for powering the Flash X-ray source; the high voltage pulse power supply including an input terminal and an output terminal and a circuit including one or more cold cathode field emission electron triodes (150a,150b,150c,150d;150e,150g) between the input terminal and the output terminal; f) the electron source, anode and high voltage pulse power supply creating X-radiation in said irradiation volume to irradiate material in said volume, whereby said material is ionized and molecular bonds in organic compounds contained in said material are broken; and g) a vacuum housing for the cathode, grid and anode of the Flash X-ray source maintained at a vacuum.
Method for calculating a calibration parameter for a robot tool comprising the following method steps: - first reception (REC-1) of an image dataset from a medical imaging of an image volume by means of a first interface (201.1), wherein the medical imaging is a recording of the image volume with a magnetic resonance tomography scanner, a computed tomography scanner, an ultrasound device and/or an X-ray device, wherein the image volume comprises a part of the robot tool, and wherein the robot tool is attached to a robot, - second reception (REC-2) of a robot dataset by means of a second interface (201.2), wherein the robot dataset comprises a position of at least one movable axis (351.1, 351.2, 351.3) of the robot during the recording of the image dataset, - determination of the position and/or orientation of a marking in the image dataset by means of a computing unit, wherein the robot tool comprises the marking, - first calculation (CALC-1) of an image-guided position and/or orientation of the tool centre point of the robot tool by transforming the position and/or orientation of the marking by means of the computing unit, - second calculation (CALC-2) of the calibration parameter based on the robot dataset and on the image-guided position and/or orientation of the tool centre point by means of the computing unit, wherein a predicted position and/or orientation of the tool centre point is calculated from the robot dataset, and wherein the calibration parameter comprises the deviations of the predicted position and/or orientation from the image-guided position and/or orientation. - first reception (REC-1) of an image dataset from a medical imaging of an image volume by means of a first interface (201.1), wherein the medical imaging is a recording of the image volume with a magnetic resonance tomography scanner, a computed tomography scanner, an ultrasound device and/or an X-ray device, wherein the image volume comprises a part of the robot tool, and wherein the robot tool is attached to a robot, - second reception (REC-2) of a robot dataset by means of a second interface (201.2), wherein the robot dataset comprises a position of at least one movable axis (351.1, 351.2, 351.3) of the robot during the recording of the image dataset, - determination of the position and/or orientation of a marking in the image dataset by means of a computing unit, wherein the robot tool comprises the marking, - first calculation (CALC-1) of an image-guided position and/or orientation of the tool centre point of the robot tool by transforming the position and/or orientation of the marking by means of the computing unit, - second calculation (CALC-2) of the calibration parameter based on the robot dataset and on the image-guided position and/or orientation of the tool centre point by means of the computing unit, wherein a predicted position and/or orientation of the tool centre point is calculated from the robot dataset, and wherein the calibration parameter comprises the deviations of the predicted position and/or orientation from the image-guided position and/or orientation.
A fluid pressure operable actuator, comprising: an actuator housing having an end wall; a pushrod projecting through an opening in the end wall for reciprocation upon service pressure application or release, an edge of the opening and a pushrod outer surface together defining a gap; a shield disposed on the pushrod to restrict contamination of an interior chamber of the actuator housing through the gap; characterized in that the shield includes a plurality of lugs to receive, absorb, and dissipate lateral pushrod loading. an actuator housing having an end wall; a pushrod projecting through an opening in the end wall for reciprocation upon service pressure application or release, an edge of the opening and a pushrod outer surface together defining a gap; a shield disposed on the pushrod to restrict contamination of an interior chamber of the actuator housing through the gap; characterized in that the shield includes a plurality of lugs to receive, absorb, and dissipate lateral pushrod loading.
Dry-type transformer (70, 90) for mobile applications, comprising a transformer core (52, 86, 92) and at least a radially inner first hollow-cylindrical winding segment (34, 54) and a radially outer second hollow-cylindrical winding segment (32, 58), which winding segments are wound around a common winding axis, have the transformer core (86, 92) passing through them and are nested one inside the other and spaced radially apart from one another such that a hollow-cylindrical cooling channel (10, 60, 62) is developed therebetween, wherein spacer elements (24, 26, 28, 40, 42) are provided for the spacing apart, which spacer elements are arranged in such a way that a coolant can flow through the cooling channel (10, 60, 62) in the axial direction, characterized in that the spacer elements (24, 26, 28, 40, 42) are arranged in condensed form along the radial circumference of the cooling channel (10, 60, 62) over the axial length thereof in the radial direction with respect to a preferred respective resting area on the outer surface of the at least one second winding segment (32, 58), with the result that an increased capacity for radial compressive stress results in the corresponding regions of the cooling channel (10, 60, 62) and no deformation of the cooling channel (10, 60, 62) takes place if the proportional weight of the horizontal dry-type transformer with horizontally aligned winding axis is evened out exclusively at the preferred resting area.
A composition comprising at least one compound selected from the group consisting of dantrolene, azumolene, and pharmaceutically acceptable salts of these for use in the treatment and prophylaxis of a cardiac arrest-related dysfunction selected from the group consisting of ventricular arrhythmia, ventricular tachycardia and ventricular fibrillation, wherein (i) the composition is administered approximately during or within 1 second to 30 minutes following cardiac arrest, and (ii) the composition is effective in treating or protecting from at least one of the ventricular arrhythmia, the ventricular tachycardia and the ventricular fibrillation. (i) the composition is administered approximately during or within 1 second to 30 minutes following cardiac arrest, and (ii) the composition is effective in treating or protecting from at least one of the ventricular arrhythmia, the ventricular tachycardia and the ventricular fibrillation.
An electrochemical cell comprising: a first electrode configured to operate as an anode to oxidize a fuel when connected to a load, the first electrode comprising a permeable electrode body permeable to a liquid ionically conductive medium configured to allow flow of a liquid ionically conductive medium therethrough; an electrode holder comprising a cavity for holding the first electrode; a diffuser positioned in the cavity between the first electrode and the electrode holder with a first gap between a first side of the diffuser and the electrode holder, the diffuser comprising a plurality of openings configured to allow flow of the liquid ionically conductive medium therethrough and to distribute the flow of the liquid ionically conductive medium through the first electrode; and a second electrode positioned in the cavity on a side of the first electrode that is opposite the diffuser and spaced from the first electrode, the second electrode being configured to operate as a cathode to reduce an oxidizer when connected to the load and in contact with the liquid ionically conductive medium; characterized in that the first electrode and the second electrode are spaced apart with a second gap therebetween; and in that the first gap and the second gap each provide a flow direction of the liquid ionically conductive medium that is generally perpendicular to a flow direction through the first electrode. a first electrode configured to operate as an anode to oxidize a fuel when connected to a load, the first electrode comprising a permeable electrode body permeable to a liquid ionically conductive medium configured to allow flow of a liquid ionically conductive medium therethrough; an electrode holder comprising a cavity for holding the first electrode; a diffuser positioned in the cavity between the first electrode and the electrode holder with a first gap between a first side of the diffuser and the electrode holder, the diffuser comprising a plurality of openings configured to allow flow of the liquid ionically conductive medium therethrough and to distribute the flow of the liquid ionically conductive medium through the first electrode; and a second electrode positioned in the cavity on a side of the first electrode that is opposite the diffuser and spaced from the first electrode, the second electrode being configured to operate as a cathode to reduce an oxidizer when connected to the load and in contact with the liquid ionically conductive medium; characterized in that the first electrode and the second electrode are spaced apart with a second gap therebetween; and in that the first gap and the second gap each provide a flow direction of the liquid ionically conductive medium that is generally perpendicular to a flow direction through the first electrode.
A method for prefixing substrates (1, 2), wherein at least one substrate surface (1o, 2o) of the substrates (1, 2) is amorphized in at least one surface area, wherein the substrates (1, 2) are aligned and then brought into contact at the amorphized surface areas and prefixed solely at partial areas, characterized in that local application of force is used to achieve equivalent pressure for spontaneous bonds in the partial areas and thus to prefix the substrates (1, 2).
A frame for metal doors and consisting of a single piece of sheet metal bent to U-shape with its arms fixable to the masonry and with its base disposed parallel to the edge of the masonry, said base being provided with at least one lip parallel to the base and facing the edge of the masonry, said lip being obtained by bending over the piece of sheet metal AND coupling together two facing ledges (20, 20'), with an insulating gasket being positioned between said ledges characterised in that at least one of the ledges (20, 20') is provided with a plurality of holes, said holes consisting of a plurality of rows of longitudinally offset slotted holes.
An apparatus for providing coded bit streams to a plurality of IDFT, Inverse Discrete Fourier Transform, circuits in an OFDM, Orthogonal Frequency Division Multiplexing, transmitter including an encoder for outputting a stream of n bits coded by encoding a binary data k-bit stream on the basis of a predetermined code rate k/n, the IDFT circuits for outputting OFDM modulation symbol streams corresponding to the coded bit stream and a peak detector for selecting and outputting a modulation symbol stream having minimum peak power among the modulation symbol streams outputted from the IDFT circuits, the apparatus comprising: adders for receiving coset leaders of vectors selected one by one from vectors within each of cosets corresponding to a standard array of the coded bits, carrying out a bit-wise modulo-2 operation of the coded bit stream and each coset leader, and outputting U number of coded bit streams having different syndromes, wherein said standard array is an array of linear block codes; and mappers for producing U number of discrete signal streams by carrying out symbol mapping for each of the U coded bit streams in a predetermined unit of bits and providing each of the discrete signal streams to a corresponding one of the IDFT circuits, the discrete signal stream consisting of a plurality of symbols. adders for receiving coset leaders of vectors selected one by one from vectors within each of cosets corresponding to a standard array of the coded bits, carrying out a bit-wise modulo-2 operation of the coded bit stream and each coset leader, and outputting U number of coded bit streams having different syndromes, wherein said standard array is an array of linear block codes; and mappers for producing U number of discrete signal streams by carrying out symbol mapping for each of the U coded bit streams in a predetermined unit of bits and providing each of the discrete signal streams to a corresponding one of the IDFT circuits, the discrete signal stream consisting of a plurality of symbols.
A method of separating a composite liquid into at least a first component and a second component, said method comprising: centrifuging a separation bag containing a volume of composite liquid so as to cause the sedimentation of at least a first component and a second component; squeezing the separation bag to transfer some of the second component to a first transfer line attached to a first transfer bag and the separation bag; stopping the transfer of the second component to the first transfer line; squeezing the separation bag after the stopping step to build up an over-pressure in the separation bag; and transferring, using the over-pressure, a part of the second component remaining in the separation bag to the first transfer bag through the first transfer line wherein the over-pressure causes the second component to rapidly move toward the first transfer bag. centrifuging a separation bag containing a volume of composite liquid so as to cause the sedimentation of at least a first component and a second component; squeezing the separation bag to transfer some of the second component to a first transfer line attached to a first transfer bag and the separation bag; stopping the transfer of the second component to the first transfer line; squeezing the separation bag after the stopping step to build up an over-pressure in the separation bag; and transferring, using the over-pressure, a part of the second component remaining in the separation bag to the first transfer bag through the first transfer line wherein the over-pressure causes the second component to rapidly move toward the first transfer bag.