mhurhangee/patent-ind-claim-en huggingface dataset:
A housing for a consumer device comprising a thermoplastic composition comprising: (a) from 49.5 wt% to 97.95 wt% of polycarbonate polymer, the polycarbonate polymer comprising at least one polycarbonate polymer having a molecular weight (Mw) of at least 20,000 g/mol and a second polycarbonate polymer have a molecular weight (Mw) of less than 20,000 g/mol, as determined by gel permeation chromatography using polycarbonate standards; (b) from 2.0 wt% to 49.5 wt% of at least one polycarbonate-siloxane copolymer in an amount effective to provide a total siloxane content of 1.0 wt% to 5.0 wt% based on the total weight of the thermoplastic composition; and (c) from 0.05 wt% to about 1.0 wt% of at least one release agent, wherein the thermoplastic composition exhibits a melt volume flow rate (MVR) of at least 25 cm 3 /10 min, as determined according to ISO 1133 at 300°C using a 1.2 kg load; a ductile/brittle transition temperature of less than or equal to 10 °C as determined in accordance with ISO 180-1A on a molded part having a thickness of 3 mm; and a tensile yield strength retention of 80% and higher after exposure of an ISO tensile bar for 24 hours to sunscreen under 1% strain compared to a non-exposed reference tested according to ISO 22088-3. (a) from 49.5 wt% to 97.95 wt% of polycarbonate polymer, the polycarbonate polymer comprising at least one polycarbonate polymer having a molecular weight (Mw) of at least 20,000 g/mol and a second polycarbonate polymer have a molecular weight (Mw) of less than 20,000 g/mol, as determined by gel permeation chromatography using polycarbonate standards; (b) from 2.0 wt% to 49.5 wt% of at least one polycarbonate-siloxane copolymer in an amount effective to provide a total siloxane content of 1.0 wt% to 5.0 wt% based on the total weight of the thermoplastic composition; and (c) from 0.05 wt% to about 1.0 wt% of at least one release agent,
A multilayer eddy current sensor comprising: at least one first sense coil for detecting an eddy current, wherein the at least one first sense coil comprises a first axis and a first width ; at least one second sense coil electrically connected to the at least one first sense coil , wherein the at least one second sense coil comprises a second axis and a second width; and a first drive conductor for inducing the eddy current, the at least one first drive conductor spaced apart from the at least one first sense coil by an insulator layer , wherein the at least one first drive conductor comprises a substantially straight conducting portion that traverses the first width of the at least one first sense coil and the second width of the at least one second sense coil ; wherein the at least one first sense coil , the at least one second sense coil , and the at least one first drive conductor are disposed in separate layers of the eddy current sensor (100; and wherein the first axis of the at least one first sense coil and the second axis of the at least one second sense coil are perpendicular to a plane containing the coil and intersect the first drive conductor . at least one first sense coil for detecting an eddy current, wherein the at least one first sense coil comprises a first axis and a first width ; at least one second sense coil electrically connected to the at least one first sense coil , wherein the at least one second sense coil comprises a second axis and a second width; and a first drive conductor for inducing the eddy current, the at least one first drive conductor spaced apart from the at least one first sense coil by an insulator layer , wherein the at least one first drive conductor comprises a substantially straight conducting portion that traverses the first width of the at least one first sense coil and the second width of the at least one second sense coil ; wherein the at least one first sense coil , the at least one second sense coil , and the at least one first drive conductor are disposed in separate layers of the eddy current sensor (100; and wherein the first axis of the at least one first sense coil and the second axis of the at least one second sense coil are perpendicular to a plane containing the coil and intersect the first drive conductor .
Parametric frequency-domain audio decoder representing a multi-channel audio decoder for reconstructing a multichannel audio signal from a data stream into which channels are coded using a lapped transform of the channels, the parametric frequency-domain audio decoder configured to identify first scale factor bands of a spectrum of a first channel of a current frame of the multichannel audio signal, within which all spectral lines are quantized to zero, and second scale factor bands of the spectrum, within which at least one spectral line is quantized to non-zero; fill the spectral lines within a predetermined scale factor band of the first scale factor bands with noise generated using spectral lines of a downmix of a previous frame of, the multichannel audio signal, with adjusting a level of the noise using a scale factor of the predetermined scale factor band; dequantize the spectral lines within the second scale factor bands using scale factors of the second scale factor bands; inverse transform the spectrum obtained from the first scale factor bands filled with the noise the level of which is adjusted using the scale factors of the first scale factor bands, and the second scale factor bands dequantized using the scale factors of the second scale factor bands, so as to obtain a time domain portion of the first channel of the multichannel audio signal. identify first scale factor bands of a spectrum of a first channel of a current frame of the multichannel audio signal, within which all spectral lines are quantized to zero, and second scale factor bands of the spectrum, within which at least one spectral line is quantized to non-zero; fill the spectral lines within a predetermined scale factor band of the first scale factor bands with noise generated using spectral lines of a downmix of a previous frame of, the multichannel audio signal, with adjusting a level of the noise using a scale factor of the predetermined scale factor band; dequantize the spectral lines within the second scale factor bands using scale factors of the second scale factor bands; inverse transform the spectrum obtained from the first scale factor bands filled with the noise the level of which is adjusted using the scale factors of the first scale factor bands, and the second scale factor bands dequantized using the scale factors of the second scale factor bands, so as to obtain a time domain portion of the first channel of the multichannel audio signal.
A support structure for a prosthetic heart valve , the support structure including a tubular body having a longitudinal axis (X f ), the tubular body comprising: a first region that is annular shape and is characterized by a first transverse deformation resistance; and a second region that is annular in shape and is characterized by a second transverse deformation resistance, the second region including a plurality of strut elements defining the annular shape of the second region , at least a portion of each of the plurality of strut elements having a region of reduced cross section including a width in a radial direction transverse to the longitudinal axis (X f ) of the tubular body and a thickness in a longitudinal direction parallel to the longitudinal axis (X f ) of the tubular body, the width in the region of reduced cross section being at least four times the thickness such that the second region exhibits a relatively higher degree of compressibility in the longitudinal direction than in the radial direction. a first region that is annular shape and is characterized by a first transverse deformation resistance; and a second region that is annular in shape and is characterized by a second transverse deformation resistance, the second region including a plurality of strut elements defining the annular shape of the second region , at least a portion of each of the plurality of strut elements having a region of reduced cross section including a width in a radial direction transverse to the longitudinal axis (X f ) of the tubular body and a thickness in a longitudinal direction parallel to the longitudinal axis (X f ) of the tubular body, the width in the region of reduced cross section being at least four times the thickness such that the second region exhibits a relatively higher degree of compressibility in the longitudinal direction than in the radial direction.
An anchoring device for a device intended for implantation at a native heart valve annulus, said anchoring device comprising: a central portion being a ring; characterized in that the central portion comprises exactly two anchors extending therefrom, each of said anchors having a proximal fixed end secured to the central portion and terminating in a free end, said anchors being spaced slightly away from and running radially outside and substantially parallel to the outer circumference of the central portion in a curved fashion, forming valve leaflet-receiving slots between the anchors and the central portion , wherein the fixed ends of the anchors are spaced apart 90 degrees to 140 degrees about the circumference of the device. a central portion being a ring; characterized in that the central portion comprises exactly two anchors extending therefrom, each of said anchors having a proximal fixed end secured to the central portion and terminating in a free end, said anchors being spaced slightly away from and running radially outside and substantially parallel to the outer circumference of the central portion in a curved fashion, forming valve leaflet-receiving slots between the anchors and the central portion , wherein the fixed ends of the anchors are spaced apart 90 degrees to 140 degrees about the circumference of the device.
A device for carrying out a method for separating composite materials and mixtures, in particular solid-material mixtures and slags, comprising the step of transporting the composite material or the mixture through a separating device (31, 41; 32, 42), wherein the composite material to be separated or the mixture to be separated is excited by mechanical impulses as it passes through the separating device and is thereby separated, wherein the device comprises a drive unit for driving a rotor element which is connected to a bearing/shaft unit having an axis of rotation which is hereinafter referred to as the X-axis and which is substantially parallel to the force of gravity, the rotor element being part of a rotor unit , the rotor element itself having at least one rotor tool and each rotor tool having at least one rotor tool component , the rotor element being surrounded by a stator element , which is part of a stator unit , the stator element itself having at least one stator tool and each stator tool having at least one stator tool component , the rotor element and the stator element being substantially cylindrical and the device additionally comprising a material inlet for supplying the composite material or the mixture above the rotor/stator unit and a material outlet for discharging the separated material below the rotor/stator unit , characterized in that the at least one rotor tool and the at least one rotor tool component are substantially oriented in the direction of the X-axis, hereinafter referred to as the X-direction, the X-direction and the tangential direction of the stator element together define a plane A at the position of the at least one stator tool component , and the X-direction and the radial direction of the stator element together define a plane B at the position of the at least one stator tool component , the at least one stator tool component being orientable relative to the X-direction both in plane A and in plane B.
A circulating fluidized bed boiler, comprising: a furnace comprising a bottom end, a top end opposite to the bottom end in a vertical direction of the furnace, and the furnace being adapted to be defined and enclosed by a ceiling disposed at the top end, an air distributor disposed at the bottom end, and a water wall disposed between the ceiling and the air distributor and configured to comprise front and rear walls and left and right side walls formed by water cooling wall tubes, and the water wall being provided with secondary air ports near the bottom end for introducing secondary air into the furnace and furnace flue gas outlets near the top end of the furnace; at least two cyclones connected to the furnace flue gas outlets and each comprising a solid outlet and a flue gas outlet; a loop-seal connected to the solid outlets of the cyclones and a portion of water wall near the bottom end, respectively; and a flue gas duct connected to the flue gas outlets of the cyclones, characterized in that the water cooling wall tubes of the water wall are adapted to form at least one vertical columnar recessed segment (BCDE, FGHI, SRQP, ONML) recessed inwards and configured to extend at least 15% of a height of the furnace in the vertical direction, and wherein the secondary air ports are arranged in a flat part and/or at a corner of the at least one vertical columnar recessed segment (BCDE, FGHI, SRQP, ONML). at least two cyclones connected to the furnace flue gas outlets and each comprising a solid outlet and a flue gas outlet; a loop-seal connected to the solid outlets of the cyclones and a portion of water wall near the bottom end, respectively; and a flue gas duct connected to the flue gas outlets of the cyclones, characterized in that the water cooling wall tubes of the water wall are adapted to form at least one vertical columnar recessed segment (BCDE, FGHI, SRQP, ONML) recessed inwards and configured to extend at least 15% of a height of the furnace in the vertical direction, and wherein the secondary air ports are arranged in a flat part and/or at a corner of the at least one vertical columnar recessed segment (BCDE, FGHI, SRQP, ONML).
An exhaust system for a power generating apparatus comprising a gas turbine for combusting a fuel in air to produce power, which exhaust system being adapted to receive a flowing exhaust gas and comprising a catalyst system for treating the exhaust gas, which catalyst system comprising a first oxidation catalyst and a second oxidation catalyst, wherein the first oxidation catalyst is positioned downstream from the gas turbine so that the flowing exhaust gas contacts the first oxidation catalyst before the second oxidation catalyst, and wherein the exhaust system comprises a heat recovery steam generator (HRSG), wherein the catalyst system comprises an ammonia injection apparatus (AIG) disposed downstream from the second oxidation catalyst and adapted for injecting ammonia into a flowing exhaust gas and a selective catalytic reduction (SCR) catalyst for reducing oxides of nitrogen with ammonia reductant.
A positron emission tomography apparatus, comprising: a scanner including a plurality of radiation detectors configured to detect radiation generated in an object and arranged around a top plate with a cylindrical shape having a predetermined axial length along a major axis direction of the top plate and a predetermined ring diameter; and a controller configured: to determine a largest time-of-flight difference of the radiation by a longest oblique line-of-response with an emission location at an edge of a field of view for the object based on the axial length, the ring diameter, and a diameter of the field of view for the object; and to calculate an optimal coincidence time width based on the oblique line of response the largest time-of-flight difference and a standard deviation of a time-of-flight difference of the radiation; wherein the controller is configured to determine the diameter of the field of view based on a scanogram generated by performing X-ray computed tomography on the object. a scanner including a plurality of radiation detectors configured to detect radiation generated in an object and arranged around a top plate with a cylindrical shape having a predetermined axial length along a major axis direction of the top plate and a predetermined ring diameter; and a controller configured: to determine a largest time-of-flight difference of the radiation by a longest oblique line-of-response with an emission location at an edge of a field of view for the object based on the axial length, the ring diameter, and a diameter of the field of view for the object; and to calculate an optimal coincidence time width based on the oblique line of response the largest time-of-flight difference and a standard deviation of a time-of-flight difference of the radiation; wherein the controller is configured to determine the diameter of the field of view based on a scanogram generated by performing X-ray computed tomography on the object. to determine a largest time-of-flight difference of the radiation by a longest oblique line-of-response with an emission location at an edge of a field of view for the object based on the axial length, the ring diameter, and a diameter of the field of view for the object; and to calculate an optimal coincidence time width based on the oblique line of response the largest time-of-flight difference and a standard deviation of a time-of-flight difference of the radiation; wherein the controller is configured to determine the diameter of the field of view based on a scanogram generated by performing X-ray computed tomography on the object.
A method for processing a database data modification request, the method comprising: receiving (S101) a data modification request for a database; modifying (SI02) second data in the database to first data; generating (S102) a first log and a second log based on the data modification request, wherein the first log is a simplified log that includes only the first data, and the second log comprises the first data and the second data; performing (S103) persistence processing on the first log and performing (S204) persistence processing on the second log; and returning (SI03) a modification result that corresponds to the data modification request after having performed persistence processing on the first log without waiting for persistence processing to have been performed on the second log. receiving (S101) a data modification request for a database; modifying (SI02) second data in the database to first data; generating (S102) a first log and a second log based on the data modification request, wherein the first log is a simplified log that includes only the first data, and the second log comprises the first data and the second data; performing (S103) persistence processing on the first log and performing (S204) persistence processing on the second log; and returning (SI03) a modification result that corresponds to the data modification request after having performed persistence processing on the first log without waiting for persistence processing to have been performed on the second log.
Grill with a trough structure , open on the upper side and comprising a circumferential side wall , with a fuel container arranged in the trough structure at a distance from its side wall , with an air feed for delivering air on the under side into the fuel container , and with a grill grate extending over the upper side opening of the trough structure , of which the grate area located above the fuel holder is configured as closed in the alignment of the outline of the fuel container , wherein the grate comprises a closed circumferential edge area , and, between the central closed grate area and the closed edge area , a grate area is provided, configured as open in order to allow the combustion gases to escape from the trough structure , connected to the open grate area of which is the central grate area with the edge area , with the grate bars arranged at a distance from one another, characterised in that the connection on the upper side of the fuel container extends, leaving only a small spacing gap (A), as far as the under side of the closed grate area of the grate , and that the closed grate area of the grate , located above the fuel container , extends over the side connection of the fuel container , facing towards the side wall of the trough structure , in the direction towards the edge connection of the grate .
Method for treating plastic preforms , wherein the plastic preforms are transported in a row by a feed transport device and are separated by means of a separating device , wherein the separating device has a carrier which is rotatable with respect to a predetermined axis of rotation (D) and which has on its outer circumference a plurality of recesses equidistant from one another in a peripheral direction of the carrier for receiving the plastic preforms in a takeover area (B1), wherein this separating device transports the plastic preforms separately along a predetermined transport path section and wherein the separating device transfers the plastic preforms in a transfer area (B2) to a further transport device which transports the plastic preforms further at a predetermined transport speed, characterised in that during a start-up process the separating device increases a transport speed at which it conveys the plastic preforms from the takeover area (B1) to the transfer area (B2).
A signaling device (24;124;224) adapted to be electrically coupled to an electric potential applied to terminals of a fuse element (12;112) or to clips of a fuse holder, said signaling device (24;124;224) is adapted to signal to the outside at least one property of said fuse element (12;112), characterized in that said signaling device (24;124;224) comprises at least one transmission layer (32;132;232) having an electrically controllable transmission factor and in that the transmission factor of the transmission layer (32;132;232) is controlled in a range between opaque and transparent.
A dispensing apparatus comprising: a housing having a cavity sized to receive a product package containing a fluid product to be dispensed; a fluid drive unit having an inlet conduit directly connected to receive a supply of a drive fluid such that flow of the drive fluid causes rotation of the fluid drive unit ; an outlet conduit from which the drive fluid exits the housing ; and a pump engagement mechanism configured to removably connect the fluid drive unit to a pump engagement coupling of a pump internally integrated into the product package and to transfer rotational motion of the fluid drive unit to the pump , resulting in dispensing of the fluid product from the product package responsive to rotation of the fluid drive unit . a housing having a cavity sized to receive a product package containing a fluid product to be dispensed; a fluid drive unit having an inlet conduit directly connected to receive a supply of a drive fluid such that flow of the drive fluid causes rotation of the fluid drive unit ; an outlet conduit from which the drive fluid exits the housing ; and a pump engagement mechanism configured to removably connect the fluid drive unit to a pump engagement coupling of a pump internally integrated into the product package and to transfer rotational motion of the fluid drive unit to the pump , resulting in dispensing of the fluid product from the product package responsive to rotation of the fluid drive unit .