mhurhangee/ep-ind-claims huggingface dataset:
A port member (15, 23) of a superconducting accelerating cavity, wherein said cavity comprises a cavity body, a beam pipe part provided at an end of said cavity body and a port portion (17, 27) formed in said beam pipe part, said port member (15, 23) for coupling to a second flange (37, 51) of an external structure (22, 49), one end of said port member (15, 23) being joined by welding to said port portion (17, 27) and the other end being for joining by flange coupling to said external structure (22, 49), said port member (15, 23) comprising: a port body (33, 45) which is joined by welding to said port portion (17, 27); characterized in that the port member (15, 23) further comprises: a first flange (35, 47) that is integrally formed at one end of said port body (33, 45), wherein said port body (33, 45) and said first flange (35, 47) are integrally formed of a niobium material having an impurity content of 1 to 10 % in weight, and a quick coupling (41, 55), for connecting said first flange (35, 47) of said port member (15, 23) to said second flange (37, 51) of said external structure (22, 49). a port body (33, 45) which is joined by welding to said port portion (17, 27); characterized in that the port member (15, 23) further comprises: a first flange (35, 47) that is integrally formed at one end of said port body (33, 45), wherein said port body (33, 45) and said first flange (35, 47) are integrally formed of a niobium material having an impurity content of 1 to 10 % in weight, and a quick coupling (41, 55), for connecting said first flange (35, 47) of said port member (15, 23) to said second flange (37, 51) of said external structure (22, 49). a first flange (35, 47) that is integrally formed at one end of said port body (33, 45), wherein said port body (33, 45) and said first flange (35, 47) are integrally formed of a niobium material having an impurity content of 1 to 10 % in weight, and a quick coupling (41, 55), for connecting said first flange (35, 47) of said port member (15, 23) to said second flange (37, 51) of said external structure (22, 49).
A two-part ferrite core with a clamping mechanism which is provided over the core, the core comprising channels for insertion of one or more windings, wherein one core part is slideable with respect to the other core part in one direction to expose at least one channel and in another direction to expose at least one other channel and wherein the clamping mechanism is adapted to continuously urge the parts together and maintain the parts in contact with one another.
Filter device for filtering a fluid to be filtered, having at least one double-membrane arrangement, Filter device having at least one first connection for introducing the fluid to be filtered into the at least one double-membrane arrangement and at least one second connection for discharging a filtrate of the fluid to be filtered out of the filter device, the at least one double-membrane arrangement - viewed in the flow direction of the fluid to be filtered - having a first membrane and, downstream, a second membrane, an interspace being embodied between the first membrane and the second membrane, the interspace comprising a flushing channel for flushing the interspace the flushing channel extending from at least one third connection for introducing a flushing fluid into the interspace to at least one fourth connection for discharging the flushing fluid from the interspace, the at least one third connection and the at least one fourth connection opening into the interspace, characterized in that that at least one adsorption filter is arranged between the second membrane and the at least one second connection.
A crystal of grapiprant having a crystalline form Form X, which exhibits an X-ray powder diffraction pattern having characteristic peaks expressed in degrees 2-theta at 6.5 ± 0.15, 10.1 ± 0.15, 14.9 ± 0.15, 15.3 ± 0.15, 19.7 ± 0.15, 20.3 ± 0.15, 21.3 ± 0.15, 22.7 ± 0.15, 23.1 ± 0.15, and 27.3 ± 0.15; and which exhibits a differential scanning calorimetry profile having endotherm/exotherm events at 33-80 °C and at 110-140 °C; and which exhibits a thermogravimetric analysis showing a loss of mass of 12-13% when heated from 24° to 150 °C; wherein the X-ray diffraction pattern is determined using an X-ray diffractometer with a copper Kα radiation source operated at 45 kV/40 mA, a scan range of 3.0 to 40.0 degrees 2-theta, a step size of 0.02 degrees 2-theta, and a scan time of 12.7 seconds per step; and wherein the differential scanning calorimetry profile is performed using a differential scanning calorimeter heated from 22 °C to a designated temperature at a rate of 5 °C per minute; and wherein the thermogravimetric analysis was performed with a thermogravimetric analyzer heated from room temperature to a designated temperature at a rate of 10 °C per minute with a nitrogen flow of 50 mL per minute.
A high-speed rotational atherectomy device for opening a stenosis in an artery having a lumen, comprising: a flexible, elongated, rotatable driveshaft, advanceable through the lumen; and a generally cylindrical abrasive element disposed on the driveshaft, the abrasive element having a first center of mass offset from a center of mass of the driveshaft in a first radial direction and having a second center of mass offset from the center of mass of the driveshaft in a second radial direction, the second center of mass being positioned proximal of the first center of mass, the second radial direction being predominantly opposite to the first radial direction. a flexible, elongated, rotatable driveshaft, advanceable through the lumen; and a generally cylindrical abrasive element disposed on the driveshaft, the abrasive element having a first center of mass offset from a center of mass of the driveshaft in a first radial direction and having a second center of mass offset from the center of mass of the driveshaft in a second radial direction, the second center of mass being positioned proximal of the first center of mass, the second radial direction being predominantly opposite to the first radial direction.
A materials handling vehicle having detection zone control comprising: a power unit for driving the vehicle; at least one contactless obstacle sensor on the vehicle operable to define at least two detection zones, each detection zone being defined in an area at least partially in front of a forward traveling direction of the vehicle and a controller; characterized in that each detection zone designates an associated speed control zone and a corresponding predetermined maximum speed greater than zero kilometers per hour, wherein a first detection zone is associated with a first predetermined maximum speed and a second detection zone is associated with a second predetermined maximum speed different than the first predetermined maximum speed; and the controller is configured to receive information obtained from the at least one obstacle sensor to limit the vehicle speed to the predetermined maximum speed of an associated speed control zone based upon the detection of an obstacle in that speed zone. a power unit for driving the vehicle; at least one contactless obstacle sensor on the vehicle operable to define at least two detection zones, each detection zone being defined in an area at least partially in front of a forward traveling direction of the vehicle and a controller; characterized in that each detection zone designates an associated speed control zone and a corresponding predetermined maximum speed greater than zero kilometers per hour, wherein a first detection zone is associated with a first predetermined maximum speed and a second detection zone is associated with a second predetermined maximum speed different than the first predetermined maximum speed; and the controller is configured to receive information obtained from the at least one obstacle sensor to limit the vehicle speed to the predetermined maximum speed of an associated speed control zone based upon the detection of an obstacle in that speed zone.
A filter regeneration system for an internal combustion engine, wherein the filter regeneration system comprises: a calculation unit configured to calculate (i) a carbon amount contained in particulate matter accumulated on a filter arranged in an exhaust gas passage of the internal combustion engine and (ii) a minimum oxygen concentration and a minimum nitrogen dioxide concentration at which a passive regeneration reaction, in which carbon having the calculated carbon amount reacts with nitrogen dioxide and oxygen to generate carbon dioxide and nitrogen monoxide, occurs based on an amount of the particulate matter accumulated on the filter; and an exhaust gas temperature control unit configured to, in a case where an oxygen concentration and a nitrogen dioxide concentration in exhaust gas on an upstream side of the filter are equal to or higher than the minimum oxygen concentration and the minimum nitrogen dioxide concentration, respectively, control a temperature of exhaust gas flowing into the filter within a temperature range in which the passive regeneration reaction occurs preferentially. a calculation unit configured to calculate (i) a carbon amount contained in particulate matter accumulated on a filter arranged in an exhaust gas passage of the internal combustion engine and (ii) a minimum oxygen concentration and a minimum nitrogen dioxide concentration at which a passive regeneration reaction, in which carbon having the calculated carbon amount reacts with nitrogen dioxide and oxygen to generate carbon dioxide and nitrogen monoxide, occurs based on an amount of the particulate matter accumulated on the filter; and an exhaust gas temperature control unit configured to, in a case where an oxygen concentration and a nitrogen dioxide concentration in exhaust gas on an upstream side of the filter are equal to or higher than the minimum oxygen concentration and the minimum nitrogen dioxide concentration, respectively, control a temperature of exhaust gas flowing into the filter within a temperature range in which the passive regeneration reaction occurs preferentially.
Method for communication in a home automation network, allowing communication between actors of the network each having an electronic interface (4a-18a) with communication program and associated with equipment items in a building, by means of messages transmitted over the network in the form of frames comprising a plurality of functional segments, characterized in that said message frame comprises: - a start-of-message segment (BDP, PE), - an address segment, - a data length indication segment, - a data segment, - a control segment, containing a key computed as a function of the signals that make up the message, - an end-of-message binary signal, in that the start-of-message segment (BDP,PE) comprises a start-of-message binary signal followed by an idle time, and in that: - before sending a message, an actor scans for the possible presence of messages on the network then, after having confirmed the absence of messages on the network, sends a start-of-message binary signal then wait for an idle time whose duration has been assigned uniquely to it, and continues sending its message over the network only if no other message has appeared on the network during said idle time. - a start-of-message segment (BDP, PE), - an address segment, - a data length indication segment, - a data segment, - a control segment, containing a key computed as a function of the signals that make up the message, - an end-of-message binary signal, - before sending a message, an actor scans for the possible presence of messages on the network then, after having confirmed the absence of messages on the network, sends a start-of-message binary signal then wait for an idle time whose duration has been assigned uniquely to it, and continues sending its message over the network only if no other message has appeared on the network during said idle time.
A printing unit, comprising: a head unit including a thermal head configured to perform printing on a recording sheet; a platen unit including a platen roller configured to convey the recording sheet and separably combined with the head unit; a fixed blade provided to the head unit or the platen unit; a movable blade, which is to be provided to the other of the head unit and the platen unit, and is configured to slide with respect to the fixed blade; a drive mechanism configured to cause the movable blade to slide between a standby position of being separated from the fixed blade and a cutting position of riding on the fixed blade; an unlocking lever configured to release locking of the platen unit with respect to the head unit; a return mechanism configured to move the movable blade to the standby position before releasing the locking of the platen unit by being interlocked with the unlocking lever under a state in which the movable blade is held at the cutting position; and characterised in that the return mechanism comprises a return rack formed on a drive rack of the drive mechanism, and a return pinion configured to mesh with rack teeth of the return rack wherein the return pinion can be interlocked with the unlocking lever. a head unit including a thermal head configured to perform printing on a recording sheet; a platen unit including a platen roller configured to convey the recording sheet and separably combined with the head unit; a fixed blade provided to the head unit or the platen unit; a movable blade, which is to be provided to the other of the head unit and the platen unit, and is configured to slide with respect to the fixed blade; a drive mechanism configured to cause the movable blade to slide between a standby position of being separated from the fixed blade and a cutting position of riding on the fixed blade; an unlocking lever configured to release locking of the platen unit with respect to the head unit; a return mechanism configured to move the movable blade to the standby position before releasing the locking of the platen unit by being interlocked with the unlocking lever under a state in which the movable blade is held at the cutting position; and characterised in that the return mechanism comprises a return rack formed on a drive rack of the drive mechanism, and a return pinion configured to mesh with rack teeth of the return rack wherein the return pinion can be interlocked with the unlocking lever.
A weld enclosure for welding apparatus, the weld enclosure comprising a housing (22, 24a, 24b) to enclose weld elements (16, 18) in use and that accommodates relative movement between weld elements (16, 18) and a change in a physical dimension of at least one of the weld elements (16, 18), location means for locating the housing (22, 24a, 24b) relative to the welding apparatus, and characterised by a controller and heating means that are controlled by the controller individually or in discrete groups to provide differential pre-heating and to control a cooling rate of a resultant welded component within the weld enclosure.
Infrared achromatic and athermalized telephoto lens arrangement consisting of a single convergent front lens having a TOC below 35×10 -6 K -1 and of a single divergent correcting lens having a TOC above 75×10 -6 K -1, having an aperture-based f-number lower than f/2.0, wherein: 0.91 ≤ OL / EFL ≤ 1.01; 0.31 ≤ BFL / EFL ≤ 0.50; 0.20 ≤ VD / EFL ≤ 0.48; the temperature compensation is obtained by passive optical compensation only; and, the optical power of the correcting lens varies from an on axis first value to a maximal image height second value, the ratio of the second to the first value being 1.05 to 1.40 and wherein EFL is the effective focal length of the lens assembly, OL is its overall length, BFL is its back focal length, and VD is the vertex distance between both lenses.
A method, comprising: receiving a first reference signal, RS, for tracking according to a first channel state information-RS, CSI-RS, configuration, the first CSI-RS configuration specifying: first resources of the first RS, wherein the first resources consist of resources of four single-port CSI-RSs, the resources of the four single-port CSI-RSs are located in two consecutive slots, and each slot corresponds to resources of two of the four single-port CSI-RSs; and a first quasi co-location, QCL, configuration comprising a first set of QCL parameters, the first QCL configuration indicating that the first RS has a QCL relationship with a first demodulation reference signal, DMRS, with respect to the first set of QCL parameters. first resources of the first RS, wherein the first resources consist of resources of four single-port CSI-RSs, the resources of the four single-port CSI-RSs are located in two consecutive slots, and each slot corresponds to resources of two of the four single-port CSI-RSs; and a first quasi co-location, QCL, configuration comprising a first set of QCL parameters, the first QCL configuration indicating that the first RS has a QCL relationship with a first demodulation reference signal, DMRS, with respect to the first set of QCL parameters.
A component pickup rate calculating system for a component mounter that picks up components supplied by a tape feeder and mounts the components on a circuit board, the system comprising: a first counting means configured to count a component pickup operation quantity of a suction nozzle during operation of the component mounter; a second counting means configured to count a pickup error rate representing cases in which the suction nozzle could not pick up the component, or a pickup rate representing cases in which the suction nozzle could pick up a component; and a component pickup rate calculating means configured to calculate a ratio of the pickup rate or a ratio of the pickup error rate with respect to the component pickup operation quantity of the suction nozzle as a component pickup rate based on a count value of the first counting means and a count value of the second counting means, wherein the component pickup rate calculating system is characterized in that the component pickup rate calculating means is configured to calculate separate of the component pickup rates, the separate component pickup rates being a component pickup rate for a region until a specified quantity of component pickup operations immediately after the tape feeder is set on the component mounter or a region until a feeding length of component supply tape set on the tape feeder is a specified length (hereinafter referred to as "after-feeder-setting component pickup rate"), and a component pickup rate after the region has passed (hereinafter referred to as "main component pickup rate"). a first counting means configured to count a component pickup operation quantity of a suction nozzle during operation of the component mounter; a second counting means configured to count a pickup error rate representing cases in which the suction nozzle could not pick up the component, or a pickup rate representing cases in which the suction nozzle could pick up a component; and a component pickup rate calculating means configured to calculate a ratio of the pickup rate or a ratio of the pickup error rate with respect to the component pickup operation quantity of the suction nozzle as a component pickup rate based on a count value of the first counting means and a count value of the second counting means, wherein the component pickup rate calculating system is characterized in that the component pickup rate calculating means is configured to calculate separate of the component pickup rates, the separate component pickup rates being a component pickup rate for a region until a specified quantity of component pickup operations immediately after the tape feeder is set on the component mounter or a region until a feeding length of component supply tape set on the tape feeder is a specified length (hereinafter referred to as "after-feeder-setting component pickup rate"), and a component pickup rate after the region has passed (hereinafter referred to as "main component pickup rate").
A hydrogenated or partially hydrogenated conjugated diene-based polymer comprising at least one conjugated diene monomer, wherein 40% or more of an end thereof is an end having an amino group and an amide group, and an indicator b* value of yellowness, as measured with a colorimetric color difference meter, is 15 or less, wherein the end having the amino group and the amide group comprises an end having a structure represented by the following formula: wherein P represents a conjugated diene-based polymer comprising at least one conjugated diene monomer, and R 1 and R 2 each independently represent a hydrocarbon group having 1 to 20 carbon atoms.
Cutting machine, particularly for wooden panels and the like, of the type with moveable panel with means for gripping and pushing the extended panel of commercial dimensions, or parent-panel, or panel sheet on a surface against at least one cutting means (9, 10), preferably a milling tool, translatable on the surface at least in the direction transversal to the advancement direction of the panel, particularly suitable for implementing automatic procedures for optimising the cutting of flat elements, so-called nesting processes, comprising at least one continuous or segmented line of pressure means (13, 14) interacting with at least one continuous or segmented line of antagonist counter means (19, 20) for holding and guiding the panel suitable to engage and disengage the panel, extending linearly in continuous or segmented sections (13, 14, 19, 20) in the direction of advancement of the panel characterized in that said pressure and counter means, operating upstream and/or downstream and/or astride the cutting transverse line, are transversely transposable as a block or in segments (13, 14, 19, 20) with regard to the feed direction.
A process for separating mixtures of solids based on their densities, comprising: a) bringing a mixture of at least one plastic solid and at least one metal-containing solid having two distinct densities d1 and d2, into contact with a separating liquid having a density d3, distinct from d1 and d2, wherein 1.5 < d3 < 2.0, wherein the separating fluid is a fluorinated fluid selected from the group consisting of fluorinated polyethers, fluorinated alkyl polymers, fluorinated heteroalkyl polymers and hydrofluoroethers and wherein the solids have a particle size ranging from 0.1 to 100 mm; b) separating the at least one plastic solid from the at least one metal-containing solid by a density separation; c) optionally repeating steps a) and b). a) bringing a mixture of at least one plastic solid and at least one metal-containing solid having two distinct densities d1 and d2, into contact with a separating liquid having a density d3, distinct from d1 and d2, wherein 1.5 < d3 < 2.0, wherein the separating fluid is a fluorinated fluid selected from the group consisting of fluorinated polyethers, fluorinated alkyl polymers, fluorinated heteroalkyl polymers and hydrofluoroethers and wherein the solids have a particle size ranging from 0.1 to 100 mm; b) separating the at least one plastic solid from the at least one metal-containing solid by a density separation; c) optionally repeating steps a) and b).
Base element for forming a support structure for a surface area, the base element comprising a deck and a bottom structure interconnected by at least an array of columns and at least one void formed between the deck and the bottom structure for receiving a fluid, and wherein the deck is provided with openings (9, 13, 20) for passing fluids into and/or from said void, wherein in at least one of said openings a plug is provided, wherein said plug is provided with a connector for connecting an artefact to said plug or said plug is integral with an artefact, characterized in that the plug is provided with at least one wing element which extends outward from a plug body of the plug, such that in a first position said wing element can extend below the deck or in or below a part of the base element below said deck, for example in or below the bottom structure, for locking the plug in said opening, and in a second position said wing element can pass through said opening for placing and/or removing said plug from said opening.