mhurhangee/ep-ind-claims huggingface dataset:
A method of utilizing an object-based protocol for communicating between a master device and a slave device, the method comprising: facilitating a communications link with said slave device, said slave device including, one or more objects (242, 246) that are respectively associated with a set of corresponding object sequence indicators (312, 830, 846); and a current maximum-sequence-value indicator (248, 250) that indicates the largest object sequence indicator on said slave device; communicating a request for information about objects on the slave device based on a former maximum-sequence-value indicator, which indicates when the slave device formerly communicated with the master device; receiving information (243A, 243B, 243C) related to objects that satisfy said request based on the former maximum-sequence-value indicator and on the object sequence indicators (312, 830, 846), characterized in that the object sequence indicator is a value within a set of values that for any two values, a later value is at least as extreme as a preceding value and wherein utilizing the former maximum-sequence-value indicator in connection with the object sequence indicators includes determining first a set of objects whose corresponding object sequence indicator exceeds said former maximum-sequence-value indicator. facilitating a communications link with said slave device, said slave device including, one or more objects (242, 246) that are respectively associated with a set of corresponding object sequence indicators (312, 830, 846); and a current maximum-sequence-value indicator (248, 250) that indicates the largest object sequence indicator on said slave device; one or more objects (242, 246) that are respectively associated with a set of corresponding object sequence indicators (312, 830, 846); and a current maximum-sequence-value indicator (248, 250) that indicates the largest object sequence indicator on said slave device; communicating a request for information about objects on the slave device based on a former maximum-sequence-value indicator, which indicates when the slave device formerly communicated with the master device; receiving information (243A, 243B, 243C) related to objects that satisfy said request based on the former maximum-sequence-value indicator and on the object sequence indicators (312, 830, 846), characterized in that the object sequence indicator is a value within a set of values that for any two values, a later value is at least as extreme as a preceding value and wherein utilizing the former maximum-sequence-value indicator in connection with the object sequence indicators includes determining first a set of objects whose corresponding object sequence indicator exceeds said former maximum-sequence-value indicator.
A process for preparing a compound of formula or (I'), or a solvate or salt thereof, wherein R 1 is C 1 -C 6 alkyl; and R 2 and R 3, independently of one another, are selected from H and C 1 -C 6 alkyl, or together form a ring of 3 to 7 members with the nitrogen to which they are bound; which comprises (a) reacting a compound of formula, or a solvate or salt thereof, wherein R 4 is hydrogen or a hydroxyl protecting group; and R 5 is selected from -C Cl, -C Br, -C OH, -C OR', -C OCOR' and CN, wherein R' is selected from C 1 -C 6 alkyl, aryl and arylalkyl; with an optically active chiral alcohol of formula having an enantiomeric purity of at least 90% ee R 6 -OH wherein R 6 is a chiral group and wherein the hydroxyl group is attached directly to a chiral centre; to yield compounds of formula and (IV'), or a solvate or salt thereof, wherein R 2, R 3, R 4 and R 6 are as defined previously; and (b) separating the compound of formula or (IV'), or a solvate or salt thereof; and (c) converting the compound of formula or (IV'), or a solvate or salt thereof, into a compound of formula or (I'), respectively, or a solvate or salt thereof. R 1 is C 1 -C 6 alkyl; and R 2 and R 3, independently of one another, are selected from H and C 1 -C 6 alkyl, or together form a ring of 3 to 7 members with the nitrogen to which they are bound; (a) reacting a compound of formula, or a solvate or salt thereof, wherein R 4 is hydrogen or a hydroxyl protecting group; and R 5 is selected from -C Cl, -C Br, -C OH, -C OR', -C OCOR' and CN, wherein R' is selected from C 1 -C 6 alkyl, aryl and arylalkyl; with an optically active chiral alcohol of formula having an enantiomeric purity of at least 90% ee R 6 -OH wherein R 6 is a chiral group and wherein the hydroxyl group is attached directly to a chiral centre; to yield compounds of formula and (IV'), or a solvate or salt thereof, wherein R 2, R 3, R 4 and R 6 are as defined previously; and R 4 is hydrogen or a hydroxyl protecting group; and R 5 is selected from -C Cl, -C Br, -C OH, -C OR', -C OCOR' and CN, wherein R' is selected from C 1 -C 6 alkyl, aryl and arylalkyl; (b) separating the compound of formula or (IV'), or a solvate or salt thereof; and (c) converting the compound of formula or (IV'), or a solvate or salt thereof, into a compound of formula or (I'), respectively, or a solvate or salt thereof.
A compression-resistant band panel, wherein the compression-resistant band panel is presented as a three-layer composite compression-resistant structure, comprising a base layer, a band layer covering the base layer and a membrane layer on the band layer; strip-shaped protruding patterns which are arranged at interval are processed on an upper surface of the band layer; groove structures are formed among the adjacent protruding patterns; the width of the groove bottom, that is, the distance among the two adjacent protruding patterns is 0.2-2mm; the protruding patterns are 1-5mm wide; and the bottom of the groove is 0.3-2mm far from a top surface of the membrane layer covering the protruding patterns.
System of a reinforced, sealed or damped structural element (12, 14) in a motor vehicle, the system comprising: a structural element (12, 14); a device, having a carrier, a clip for pre-fixing the carrier in the structural element (12, 14), and an adhesive for bonding the carrier to the structural element (12, 14); wherein the clip is in the form of a separate element to the carrier, wherein the carrier comprises a receiving element into which the clip can be introduced to pre-fix the carrier in the structural element (12, 14), wherein the device is arranged in the structural element (12, 14); and wherein the adhesive bonds the carrier and the structural element (12, 14) to one another, characterized in that the clip has a head, a shaft, and lamellae arranged on the shaft, and in that, on a first side of the structural element (12, 14), the device projects into a first cavity (3.1) merely by way of the head of the clip. a structural element (12, 14); a device, having a carrier, a clip for pre-fixing the carrier in the structural element (12, 14), and an adhesive for bonding the carrier to the structural element (12, 14); wherein the clip is in the form of a separate element to the carrier, wherein the carrier comprises a receiving element into which the clip can be introduced to pre-fix the carrier in the structural element (12, 14), wherein the device is arranged in the structural element (12, 14); and wherein the adhesive bonds the carrier and the structural element (12, 14) to one another, characterized in that the clip has a head, a shaft, and lamellae arranged on the shaft, and in that, on a first side of the structural element (12, 14), the device projects into a first cavity (3.1) merely by way of the head of the clip.
An assembly, comprising: a first intermediate connector connectable to a first device and having a first connector interface; a second intermediate connector having a second connector interface; wherein the first intermediate connector and the second intermediate connector are movable between an interfaced state in which the first connector interface is in contact with the second connector interface and a tethered state in which the first connector interface is spaced apart from the second connector interface; and a tether member connecting the first intermediate connector and the second intermediate connector in the tethered state, wherein the tether member is a flexible body configured to control a path along at least an axis of either the first intermediate connector or the second intermediate connector during movement from the interfaced state to the tethered state, and a first end of the tether member is retained within the second intermediate connector; characterised in that a second end of the tether member is slidably connected to the first intermediate connector by means of the tether member including a first slot and/or a second slot configured to be received by and slidably retained by a first slot retaining member and/or a second slot retaining member. a first intermediate connector connectable to a first device and having a first connector interface; a second intermediate connector having a second connector interface; wherein the first intermediate connector and the second intermediate connector are movable between an interfaced state in which the first connector interface is in contact with the second connector interface and a tethered state in which the first connector interface is spaced apart from the second connector interface; and a tether member connecting the first intermediate connector and the second intermediate connector in the tethered state, wherein the tether member is a flexible body configured to control a path along at least an axis of either the first intermediate connector or the second intermediate connector during movement from the interfaced state to the tethered state, and a first end of the tether member is retained within the second intermediate connector; characterised in that a second end of the tether member is slidably connected to the first intermediate connector by means of the tether member including a first slot and/or a second slot configured to be received by and slidably retained by a first slot retaining member and/or a second slot retaining member.
A method comprising: forming a first dielectric layer on a substrate by depositing a first dielectric material on the substrate and curing the first dielectric material at a first temperature; forming a first superconducting layer comprising a first set of patterned superconducting traces on the first dielectric layer; forming a second dielectric layer on the first superconducting layer by depositing a second dielectric material on the first superconducting layer and curing the second dielectric material at a second temperature, wherein the second temperature is lower than the first temperature, and wherein each of the first dielectric material and the second dielectric material comprises a photo-imageable polyimide; and forming a second superconducting layer comprising a second set of patterned superconducting traces (114, 116, 118) on the second dielectric layer, wherein each of the first set of the patterned superconducting traces and the second set of the patterned superconducting traces is formed using proximity lithography. forming a first dielectric layer on a substrate by depositing a first dielectric material on the substrate and curing the first dielectric material at a first temperature; forming a first superconducting layer comprising a first set of patterned superconducting traces on the first dielectric layer; forming a second dielectric layer on the first superconducting layer by depositing a second dielectric material on the first superconducting layer and curing the second dielectric material at a second temperature, wherein the second temperature is lower than the first temperature, and wherein each of the first dielectric material and the second dielectric material comprises a photo-imageable polyimide; and forming a second superconducting layer comprising a second set of patterned superconducting traces (114, 116, 118) on the second dielectric layer, wherein each of the first set of the patterned superconducting traces and the second set of the patterned superconducting traces is formed using proximity lithography.
Method for identifying and verifying control software of a rail vehicle, - in which the control software is formed by functions (FKT_1,...), wherein each function (FKT_1,...) performs a task respectively assigned thereto, - in which the functions (FKT_1,...), in their interconnected entirety, form a structure of the control software, - in which a function-dependent checksum (HFKT_1,...) is created for each function (FKT_1,...), - in which a structure-dependent checksum (HSTR) is created for the structure, - in which an overall checksum (HGES) for the control software is created from the function-dependent checksums (HFKT_1,...) and from the structure-dependent checksum (HSTR), - such that the overall checksum (HGES) identifies and verifies the control software for authorization in a country (EU, ZLL). - in which the control software is formed by functions (FKT_1,...), wherein each function (FKT_1,...) performs a task respectively assigned thereto, - in which the functions (FKT_1,...), in their interconnected entirety, form a structure of the control software, - in which a function-dependent checksum (HFKT_1,...) is created for each function (FKT_1,...), - in which a structure-dependent checksum (HSTR) is created for the structure, - in which an overall checksum (HGES) for the control software is created from the function-dependent checksums (HFKT_1,...) and from the structure-dependent checksum (HSTR), - such that the overall checksum (HGES) identifies and verifies the control software for authorization in a country (EU, ZLL).
A method for determining the efficiency of plasma separation from whole blood, the method comprising: (a) obtaining DNA from a plasma sample; (b) generating by PCR co-amplification: (i) a first amplification product of 70-150 bps from a first genomic locus using a first primer pair, and (ii) a second amplification product of at least 350 bps from a second genomic locus using a second primer pair; (c) calculating a signal intensity for each of said first and second amplification products; and (d) determining that the plasma sample is separated when the difference between the signal intensities is above a predefined threshold, wherein said first and second amplification products produce distinct signal intensity differences for plasma DNA and whole blood DNA. (a) obtaining DNA from a plasma sample; (b) generating by PCR co-amplification: (i) a first amplification product of 70-150 bps from a first genomic locus using a first primer pair, and (ii) a second amplification product of at least 350 bps from a second genomic locus using a second primer pair; (i) a first amplification product of 70-150 bps from a first genomic locus using a first primer pair, and (ii) a second amplification product of at least 350 bps from a second genomic locus using a second primer pair; (c) calculating a signal intensity for each of said first and second amplification products; and (d) determining that the plasma sample is separated when the difference between the signal intensities is above a predefined threshold,
A device configured to selectively and reversibly break a subject's blood-brain barrier by emitting ultrasound, comprising: - a structure configured to be placed on at least a portion of a user's head; - at least two ultrasound transducers coupled to said structure and configured to emit ultrasound at diagnostic intensity; said at least two ultrasonic transducers being of the capacitive micromachined, piezoelectric micromachined or piezoelectric type and being adapted to increase the bioavailability in brain tissue of at least one agent combating inflammatory mediators, preferably at least one anti-inflammatory agent, even more preferably at least one anti-TNF alpha agent; said at least two ultrasound transducers are configured so that microbubbles previously injected into said subject enter into oscillation and increase vascular porosity at at least one targeted site in said subject's brain, the microbubbles having a diameter of between 2 and 11 μm and being microbubbles of sulfur hexafluoride or perfluorocarbon characterized in that said at least two ultrasound transducers are configured to deliver an ultrasound frequency of between 1 and 4 MHz, and an emitted ultrasound power of between 400 and 800 mW/cm 2. - a structure configured to be placed on at least a portion of a user's head; - at least two ultrasound transducers coupled to said structure and configured to emit ultrasound at diagnostic intensity; said at least two ultrasonic transducers being of the capacitive micromachined, piezoelectric micromachined or piezoelectric type and being adapted to increase the bioavailability in brain tissue of at least one agent combating inflammatory mediators, preferably at least one anti-inflammatory agent, even more preferably at least one anti-TNF alpha agent; said at least two ultrasound transducers are configured so that microbubbles previously injected into said subject enter into oscillation and increase vascular porosity at at least one targeted site in said subject's brain, the microbubbles having a diameter of between 2 and 11 μm and being microbubbles of sulfur hexafluoride or perfluorocarbon characterized in that said at least two ultrasound transducers are configured to deliver an ultrasound frequency of between 1 and 4 MHz, and an emitted ultrasound power of between 400 and 800 mW/cm 2.
A ceramic article having sintered phase composition, by weight, of 65-95% cordierite and 5-35% of a secondary phase selected from the group consisting of mullite, magnesium-aluminate spinel, and sapphirine, having a bulk analytical composition consisting essentially of, by weight, 32-51% SiO 2, 35-49% Al 2 O 3, 7-16% MgO that exhibits, a total porosity of not less than 20%, by volume, a coefficient of thermal expansion no greater than 15.0x10 -7 /°C over the temperature range of 25°C to about 1000°C and an effective strength greater than at least 3000, the ceramic article having been made by using a MgO yielding component that comprises a platy talc having a morphology index between 0.65 to 0.85, the ceramic article exhibiting a porosity greater than 25%.
Roller hemming head for fastening to a robot arm, - wherein the roller hemming head comprises a main body, a first tool half, a second tool half, a carriage, a linear guide, a displacement drive and a rotary drive, - wherein the first tool half comprises a turret head and at least two pressure rollers, - wherein the pressure rollers are each mounted on the turret head so as to be rotatable about their longitudinal axis (L10-L13), - wherein the second tool half comprises a bearing block and at least one counterpart roller, - wherein the at least one counterpart roller is mounted on the bearing block so as to be rotatable about its longitudinal axis, - wherein in each case a pressure roller and a counterpart roller are aligned with one another in such a way that a roller pair for hem processing is formed, - wherein the turret head is mounted on the carriage so as to be rotatable about an axis of rotation, - wherein the rotary drive is mounted on the carriage, - wherein the turret head is rotatable by the rotary drive in relation to the carriage about its axis of rotation, characterized - in that the carriage is guided on the main body via the linear guide so as to be displaceable by the displacement drive toward the axis of rotation of the turret head in such a way that, in a first displacement position of the turret head, the roller pair for the hem processing is formed and, in a second displacement position of the turret head, the pressure roller of the roller pair is at a spacing to the counterpart roller. - wherein the roller hemming head comprises a main body, a first tool half, a second tool half, a carriage, a linear guide, a displacement drive and a rotary drive, - wherein the first tool half comprises a turret head and at least two pressure rollers, - wherein the pressure rollers are each mounted on the turret head so as to be rotatable about their longitudinal axis (L10-L13), - wherein the second tool half comprises a bearing block and at least one counterpart roller, - wherein the at least one counterpart roller is mounted on the bearing block so as to be rotatable about its longitudinal axis, - wherein in each case a pressure roller and a counterpart roller are aligned with one another in such a way that a roller pair for hem processing is formed, - wherein the turret head is mounted on the carriage so as to be rotatable about an axis of rotation, - wherein the rotary drive is mounted on the carriage, - wherein the turret head is rotatable by the rotary drive in relation to the carriage about its axis of rotation, characterized - in that the carriage is guided on the main body via the linear guide so as to be displaceable by the displacement drive toward the axis of rotation of the turret head in such a way that, in a first displacement position of the turret head, the roller pair for the hem processing is formed and, in a second displacement position of the turret head, the pressure roller of the roller pair is at a spacing to the counterpart roller.
A time-of-flight camera module comprising a controller, a time-of-flight detector, a laser device and an optical unit comprising a polarization rotator arranged to rotate a plane of polarized light, wherein the controller is arranged to modulate the time-of-flight detector and the laser device in a depth sensing mode, wherein the time-of-flight detector is arranged to record depth data of a scene in the depth sensing mode by means of modulated laser light emitted by the laser device reflected from an object in the scene, wherein said depth data is descriptive of a distance to the object in the scene; characterized in that the controller is further arranged to modulate the time-of-flight detector and the polarization rotator in a surface polarization sensing mode, wherein the time-of-flight detector is arranged to record polarization data of the scene in the surface polarization sensing mode by means of detection light received from the object in the scene after traversing the polarization rotator, wherein said polarization data is descriptive of a polarization of the detection light, wherein the detection light comprises polarized emitted light emitted by the laser device and the optical unit which is reflected from the object in the scene.
Electromagnetically actuated quantity control valve, in particular for controlling the delivery quantity of a high-pressure pump, having a movement space which is able to be filled with a fluid, having a movement part (22, 72), arranged in said space, of an electromagnetic actuation device, and having a stop (26, 27), wherein, when the movement part (22, 72) abuts against the stop (26, 27), a contact surface is present between the movement part (22, 72) and the stop (26, 27), wherein the contact surface is defined by a surface of the movement part (22, 72) and a surface of the stop (26, 27), and wherein the contact surface is smaller than the entire surface of the movement part (22, 72) or of the stop (26, 27), wherein a dead volume exists, which, when the movement part (22, 72) abuts against the stop (26, 27), is enclosed between the movement part (22, 72) and the stop (26, 27) and is not able to be filled, characterized in that the dead volume is formed by a hollow cylindrical projection, in that, in the movement part (22, 72), axial ducts which connect the regions of the movement space situated on both sides of the movement part (22, 72) to one another are present, in that, when the movement part (22, 72) abuts against the stop (26, 27), a venting volume which is able to be filled via the ducts is present, in that the axial ducts are situated radially outside the hollow cylindrical projection, and in that the contact surface is of circular-ring-shaped form radially between the hollow cylindrical projection and the venting volume.