mhurhangee/ep-ind-claims huggingface dataset:
An implantable device, in particular for wall repair, characterized in that it comprises: - a reinforcing textile implant having first and second surfaces; - a bioadhesive coating to coat said first surface at least in part, said coating comprising at least one ionic, cross-linked bioadhesive polymer able to bond the textile implant on its first surface coated at least in part with said bioadhesive coating onto a wall to be reinforced, said at least one bioadhesive polymer being selected from among the following polymers: an acrylic acid polymer, a methacrylic acid polymer, an itaconic acid polymer, a maleic acid polymer or a maleic anhydride polymer having an adhesive function that can be activated in an aqueous medium, in that said coating is able to adhere to body tissues, and in that said at least one polymer is dehydrated and capable of forming a gel in an aqueous medium. - a reinforcing textile implant having first and second surfaces; - a bioadhesive coating to coat said first surface at least in part, said coating comprising at least one ionic, cross-linked bioadhesive polymer able to bond the textile implant on its first surface coated at least in part with said bioadhesive coating onto a wall to be reinforced, said at least one bioadhesive polymer being selected from among the following polymers: an acrylic acid polymer, a methacrylic acid polymer, an itaconic acid polymer, a maleic acid polymer or a maleic anhydride polymer having an adhesive function that can be activated in an aqueous medium, in that said coating is able to adhere to body tissues, and in that said at least one polymer is dehydrated and capable of forming a gel in an aqueous medium.
A method for preparing a nano lithium disilicate glass-ceramics as an artificial tooth block for CAD/CAM machining, the lithium disilicate glass-ceramics containing a nanosized lithium disilicate crystalline phase of 0.2 to 0.5 μm and a SiO 2 crystalline phase of 0.5 to 1.0 μm, the method comprising: melting a glass composition comprising 70 to 85 wt% SiO 2, 10 to 13 wt% Li 2 O, 3 to 7 wt% P 2 O 5 working as a nuclei formation agent, 0 to 5 wt% Al 2 O 3 for increasing a glass transition temperature and a softening point and enhancing chemical durability of glass, 0 to 2 wt% ZrO 2, 0.5 to 3 wt% CaO for increasing a thermal expansion coefficient of the glass, 0.5 to 3 wt% Na 2 O, 0.5 to 5 wt% K 2 O, 1 to 2 wt% colorants, and 0 to 2.0 wt% mixture of MgO, ZnO, F and La 2 O 3; and performing a primary heat treatment at a temperature of 300 to 700°C for 1 minute to 2 hours, after the primary heat treatment, performing crystal growth through a secondary heat treatment at a temperature of 750 to 950°C for 1 minute to 2 hours. melting a glass composition comprising 70 to 85 wt% SiO 2, 10 to 13 wt% Li 2 O, 3 to 7 wt% P 2 O 5 working as a nuclei formation agent, 0 to 5 wt% Al 2 O 3 for increasing a glass transition temperature and a softening point and enhancing chemical durability of glass, 0 to 2 wt% ZrO 2, 0.5 to 3 wt% CaO for increasing a thermal expansion coefficient of the glass, 0.5 to 3 wt% Na 2 O, 0.5 to 5 wt% K 2 O, 1 to 2 wt% colorants, and 0 to 2.0 wt% mixture of MgO, ZnO, F and La 2 O 3; and performing a primary heat treatment at a temperature of 300 to 700°C for 1 minute to 2 hours, after the primary heat treatment, performing crystal growth through a secondary heat treatment at a temperature of 750 to 950°C for 1 minute to 2 hours.
Machine, - wherein the machine has a stator and a rotor, - wherein the rotor has a rotor shaft, - wherein the rotor shaft is supported in bearings such that the rotor can be rotated about an axis of rotation, - wherein the bearings are embodied as active magnetic bearings in which the rotor is supported in a contactless manner, - wherein a back-up bearing is associated with each of the active magnetic bearings, the rotor being caught by the back-up bearings in the event of a failure of the respective active magnetic bearing, - wherein the respective back-up bearing has a bushing arranged on the rotor shaft and a sliding device arranged on the stator, - wherein the respective bushing has a radially inwardly arranged inner ring by means of which the bushing is fastened to and retained on the rotor shaft, - wherein the respective bushing has an outer ring radially outwardly surrounding the inner ring, which outer ring slides in the sliding device of the respective back-up bearing in the event of a failure of the respective active magnetic bearing, - wherein the inner ring and the outer ring are made of different materials, and - wherein the inner ring and the outer ring are joined to each other by a material bond characterised in that the inner ring and the outer ring are welded to each other. - wherein the machine has a stator and a rotor, - wherein the rotor has a rotor shaft, - wherein the rotor shaft is supported in bearings such that the rotor can be rotated about an axis of rotation, - wherein the bearings are embodied as active magnetic bearings in which the rotor is supported in a contactless manner, - wherein a back-up bearing is associated with each of the active magnetic bearings, the rotor being caught by the back-up bearings in the event of a failure of the respective active magnetic bearing, - wherein the respective back-up bearing has a bushing arranged on the rotor shaft and a sliding device arranged on the stator, - wherein the respective bushing has a radially inwardly arranged inner ring by means of which the bushing is fastened to and retained on the rotor shaft, - wherein the respective bushing has an outer ring radially outwardly surrounding the inner ring, which outer ring slides in the sliding device of the respective back-up bearing in the event of a failure of the respective active magnetic bearing, - wherein the inner ring and the outer ring are made of different materials, and - wherein the inner ring and the outer ring are joined to each other by a material bond
A method of wireless communication at a user equipment, UE, comprising: receiving reference signals, RSs, from a base station; determining, based on the RSs, a first channel state information, CSI, indicator indicating a first precoding configuration of the base station, the first precoding configuration optimized to at least one of improve signal power or reduce interference in an elevation dimension, wherein the first CSI indicator includes at least an elevation precoding matrix indicator, E-PMI; determining, based on the RSs, a second CSI indicator indicating a second precoding configuration of the base station, the second precoding configuration optimized to at least one of improve the signal power or reduce interference in an azimuth dimension, wherein the second CSI indicator includes at least a first azimuth precoding matrix indicator, A-PMI; transmitting, to the base station, a rank indicator and precoding type indicator, PTI, in a physical uplink control channel, PUCCH, type 6 CSI report at a first periodicity; following the PUCCH type 6 report and within a period defined by the first periodicity, transmitting, to the base station, a first CSI report, including at least the first CSI indicator and the second CSI indicator in a PUCCH type 2a CSI report at a second periodicity, wherein the first CSI report is transmitted when the PTI is 0; and following the first CSI report and within a period defined by the second periodicity, sending, to the base station, a PMI/CQI report including a second A-PMI and a wideband CQI at a third periodicity. receiving reference signals, RSs, from a base station; determining, based on the RSs, a first channel state information, CSI, indicator indicating a first precoding configuration of the base station, the first precoding configuration optimized to at least one of improve signal power or reduce interference in an elevation dimension, wherein the first CSI indicator includes at least an elevation precoding matrix indicator, E-PMI; determining, based on the RSs, a second CSI indicator indicating a second precoding configuration of the base station, the second precoding configuration optimized to at least one of improve the signal power or reduce interference in an azimuth dimension, wherein the second CSI indicator includes at least a first azimuth precoding matrix indicator, A-PMI; transmitting, to the base station, a rank indicator and precoding type indicator, PTI, in a physical uplink control channel, PUCCH, type 6 CSI report at a first periodicity; following the PUCCH type 6 report and within a period defined by the first periodicity, transmitting, to the base station, a first CSI report, including at least the first CSI indicator and the second CSI indicator in a PUCCH type 2a CSI report at a second periodicity, wherein the first CSI report is transmitted when the PTI is 0; and following the first CSI report and within a period defined by the second periodicity, sending, to the base station, a PMI/CQI report including a second A-PMI and a wideband CQI at a third periodicity.
A thermoacoustic engine incorporated in a thermoacoustic piping section in which a working gas is enclosed and sealed, the thermoacoustic engine comprising: a stack having a plurality of flow passages extending through the thermoacoustic piping section in a longitudinal direction of the thermoacoustic piping section; a hot heat exchanger coupled to one end in a longitudinal direction of the stack, the hot heat exchanger having an internal space for hot heat exchanging communicating with the plurality of flow passages and extending through the hot heat exchanger in the longitudinal direction, and adapted to heat the working gas in the internal space for hot heat exchanging; and a cold heat exchanger coupled to the other end in the longitudinal direction of the stack, the cold heat exchanger having an internal space for cold heat exchanging communicating with the plurality of flow passages and extending through the cold heat exchanger in the longitudinal direction, and adapted to cool the working gas in the internal space for cold heat exchanging, characterized in that a length in the longitudinal direction of the hot heat exchanger is greater than a length in the longitudinal direction of the stack, and is greater than a length in the longitudinal direction of the cold heat exchanger. a stack having a plurality of flow passages extending through the thermoacoustic piping section in a longitudinal direction of the thermoacoustic piping section; a hot heat exchanger coupled to one end in a longitudinal direction of the stack, the hot heat exchanger having an internal space for hot heat exchanging communicating with the plurality of flow passages and extending through the hot heat exchanger in the longitudinal direction, and adapted to heat the working gas in the internal space for hot heat exchanging; and a cold heat exchanger coupled to the other end in the longitudinal direction of the stack, the cold heat exchanger having an internal space for cold heat exchanging communicating with the plurality of flow passages and extending through the cold heat exchanger in the longitudinal direction, and adapted to cool the working gas in the internal space for cold heat exchanging, characterized in that a length in the longitudinal direction of the hot heat exchanger is greater than a length in the longitudinal direction of the stack, and is greater than a length in the longitudinal direction of the cold heat exchanger.
A method for transmitting data, applied to a first communication device, comprising: receiving at least one retransmission request, wherein the retransmission request is configured to request retransmission of erroneous sub-data blocks in a previously transmitted data block; obtaining a target data block by combining the sub-data blocks that need to be retransmitted when the sub-data blocks that need to be retransmitted meet a predetermined condition, wherein the predetermined condition comprises: a number of the sub-data blocks that need to be retransmitted reaching a first value; and sending the target data block to a second communication device. receiving at least one retransmission request, wherein the retransmission request is configured to request retransmission of erroneous sub-data blocks in a previously transmitted data block; obtaining a target data block by combining the sub-data blocks that need to be retransmitted when the sub-data blocks that need to be retransmitted meet a predetermined condition, wherein the predetermined condition comprises: a number of the sub-data blocks that need to be retransmitted reaching a first value; and sending the target data block to a second communication device.
An applying unit for applying lids to necks of containers, the applying unit comprising: - a conveying device for advancing the containers along a path in an advancement direction; - a group of applying heads, each applying head being arranged to screw a lid onto a corresponding neck; - a movement device for moving the group of applying heads along the advancement direction, so that each applying head is coupled to a corresponding neck along a portion of said path; wherein the movement device is configured to act on a common support element supporting the applying heads of said group, so as to move synchronously the applying heads along the advancement direction, the applying heads being movable synchronously with the conveying device that advances the containers in the advancing direction, along said portion of said path of the conveying device, each applying head comprising at least two gripping elements for engaging with the lid and screwing the lid onto the corresponding neck, the gripping elements being drivable between an engagement position, in which the gripping elements engage with the lid so as to rotate the lid around an axis thereof, and a disengagement position, characterized in that the applying unit further comprises a distribution unit for feeding the lids to the necks of the containers advancing along the advancement direction, and in that each applying head comprises a driving device for displacing the gripping elements along a longitudinal axis, so that the gripping elements are moved towards, or alternatively away from, the lid, the driving device being further configured to rotate the gripping elements around the longitudinal axis, in order to screw the lid onto the corresponding neck. - a conveying device for advancing the containers along a path in an advancement direction; - a group of applying heads, each applying head being arranged to screw a lid onto a corresponding neck; - a movement device for moving the group of applying heads along the advancement direction, so that each applying head is coupled to a corresponding neck along a portion of said path;
Solid composite material comprising an alloy based on manganese, aluminum and optionally carbon, and dispersed nanoparticles made from a material X, the material X being different from manganese, aluminum, carbon or a mixture thereof and satisfying the following requirements: a. the melting temperature of the material X is 1700°C or higher; and b. the material X comprises a metal. a. the melting temperature of the material X is 1700°C or higher; and b. the material X comprises a metal.
A method of controlling a construction machine having a frame, a milling drum supported from the frame for milling a ground surface, a plurality of ground engaging supports (28,30) engaging the ground surface and supporting the frame, and an advance drive (40,42) associated with at least one of the ground engaging supports (28,30) to provide motive power to the at least one ground engaging support (28,30), the method comprising the following steps: (a) rotating the milling drum in a down cut mode; (b) applying motive power to the advance drive (40,42) and moving the construction machine forward at an advance speed; and (c) sensing a parameter corresponding to a reaction force acting on the milling drum; characterized in that (d) detecting a change in the sensed parameter corresponding to an increase in the reaction force; and (e) in response to detecting the change in step (d), and while continuing to rotate the milling drum in the down cut mode, reducing the motive power provided to the advance drive (40,42) to reduce the advance speed and thereby reducing the reaction force and preventing a lurch forward event. (a) rotating the milling drum in a down cut mode; (b) applying motive power to the advance drive (40,42) and moving the construction machine forward at an advance speed; and (c) sensing a parameter corresponding to a reaction force acting on the milling drum; (d) detecting a change in the sensed parameter corresponding to an increase in the reaction force; and (e) in response to detecting the change in step (d), and while continuing to rotate the milling drum in the down cut mode, reducing the motive power provided to the advance drive (40,42) to reduce the advance speed and thereby reducing the reaction force and preventing a lurch forward event.
A rod lens array (101, 201, 301, or 401), comprising: a plurality of lenses (102, 202, 302, or 402); and a pair of side plate sections (106, 206, 306, or 406) interposing side surfaces of the respective lenses (102, 202, 302, or 402) in between to hold the lenses (102, 202, 302, or 402), the rod lens array being characterized in that each side plate section includes a first side plate (103, 203, 303, or 403) provided adjacent to the lenses (102, 202, 302, or 402), and a second side plate (104, 204, 304, or 404) provided on outer side of the first side plate (103, 203, 303, or 403), and having hardness higher than hardness of the first side plate (103, 203, 303, or 403), and a linear expansion coefficient smaller than linear expansion coefficient of the first side plate (103, 203, 303, or 403) a plurality of lenses (102, 202, 302, or 402); and a pair of side plate sections (106, 206, 306, or 406) interposing side surfaces of the respective lenses (102, 202, 302, or 402) in between to hold the lenses (102, 202, 302, or 402), the rod lens array being characterized in that each side plate section includes a first side plate (103, 203, 303, or 403) provided adjacent to the lenses (102, 202, 302, or 402), and a second side plate (104, 204, 304, or 404) provided on outer side of the first side plate (103, 203, 303, or 403), and having hardness higher than hardness of the first side plate (103, 203, 303, or 403), and a linear expansion coefficient smaller than linear expansion coefficient of the first side plate (103, 203, 303, or 403) a first side plate (103, 203, 303, or 403) provided adjacent to the lenses (102, 202, 302, or 402), and a second side plate (104, 204, 304, or 404) provided on outer side of the first side plate (103, 203, 303, or 403), and having hardness higher than hardness of the first side plate (103, 203, 303, or 403), and a linear expansion coefficient smaller than linear expansion coefficient of the first side plate (103, 203, 303, or 403)
Use of at least one enzyme catalyzing the hydrolysis of gluten for the implementation of a process of preparation of a glucose syrup having an immunostimulatory protein content comprised in the gluten, in particular gliadins and glutenins, lower than 20 ppm, from cereal starch chosen from the group of wheat, barley, rye and spelt, by contacting said at least one enzyme with: - a liquefact cereal starch milk in the hydrolysis phase to obtain a saccharifact, or - a saccharifact, optionally purified, of said cereal starch, said liquefact or said saccharifact comprising a gluten content comprised from 20 to 400 ppm, said enzyme being a prolyl endopeptidase, the quantity of said enzyme being 2 ppm, or comprised from 3 to 20 ppm, said immunostimulatory protein content being determined by the ELISA method with the R5 antibody. - a liquefact cereal starch milk in the hydrolysis phase to obtain a saccharifact, or - a saccharifact, optionally purified, of said cereal starch,
A handle for a razor, the handle comprising: • a main body; • a pivoting head pivotally coupled with the main body about a pivot axis, the pivoting head having a substantially trapezoidal prism shape and comprising a base member and a cover member that overlies the base member in a mating relationship; and wherein the cover member comprises a face defining at least one exterior opening and the pivoting head comprises an interior compartment in fluid communication with the main body and the exterior opening, characterized in that the pivoting head further comprises at least one interior channel, and a pivot spring which is at least partially disposed in the interior channel, the pivot spring comprising a first coil spring (68A, 69A) and a second coil spring (68B, 69B) and a main bar portion that couples the first (68A, 69A) and second (68B, 69B) coil springs together, wherein the pivot spring is coupled with the pivoting head and interacts with the main body to bias the pivoting head about the pivot axis into a rest position. • a main body; • a pivoting head pivotally coupled with the main body about a pivot axis, the pivoting head having a substantially trapezoidal prism shape and comprising a base member and a cover member that overlies the base member in a mating relationship; and
A slat arrangement for a wing of an aircraft, the arrangement having a movable leading-edge slat and a connection section, wherein the leading-edge slat comprises a slat leading edge and a slat trailing edge, wherein the connection section comprises a receiving opening for receiving the slat trailing edge, wherein the connection section comprises an overhang having a free end, wherein the slat trailing edge is designed to be translated under the overhang, and wherein a trailing region of the slat is configured to be elastically deformed by the overhang when the slat trailing edge is moved into the receiving opening. wherein the leading-edge slat comprises a slat leading edge and a slat trailing edge, wherein the connection section comprises a receiving opening for receiving the slat trailing edge, wherein the connection section comprises an overhang having a free end, wherein the slat trailing edge is designed to be translated under the overhang, and wherein a trailing region of the slat is configured to be elastically deformed by the overhang when the slat trailing edge is moved into the receiving opening.
A sealed bag containing a reference fluid for the calibration and/or quality control of a creatine and/or creatinine sensor, the bag comprising: an inner polymer layer and an outer polymer layer; and an aluminum oxide gas barrier layer there between; and wherein the inner polymer layer is in contact with the reference fluid. an inner polymer layer and an outer polymer layer; and an aluminum oxide gas barrier layer there between; and wherein the inner polymer layer is in contact with the reference fluid.