mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, at an audio encoder, multiple streams (131 to 133) of audio data, wherein N is the number of the received multiple streams; the method further being characterised by: determining a plurality of similarity values corresponding to a plurality of streams among the received multiple streams; comparing each of the plurality of similarity values with a threshold; identifying, based on the comparison, L number of streams to be encoded among the N number of the received multiple streams, wherein L is less than N; and encoding the identified L number of streams to generate an encoded bitstream. determining a plurality of similarity values corresponding to a plurality of streams among the received multiple streams; comparing each of the plurality of similarity values with a threshold; identifying, based on the comparison, L number of streams to be encoded among the N number of the received multiple streams, wherein L is less than N; and encoding the identified L number of streams to generate an encoded bitstream.
A method of preparing an optically transmissive and electrically conducting nanocomposite film, said method comprising the steps of: providing cellulose microparticles coated with a conductive polymer; adding said microparticles to an acid solution for initiating an acid hydrolysis reaction; reacting said microparticles with said acid to form nanoparticles comprising said conductive polymer and said cellulose; quenching said acid hydrolysis reaction; separating said nanoparticles from said acid solution to obtain a colloidal solution of said nanoparticles; and casting said colloidal solution to obtain said nanocomposite film having a thickness suitable for optical transmission. providing cellulose microparticles coated with a conductive polymer; adding said microparticles to an acid solution for initiating an acid hydrolysis reaction; reacting said microparticles with said acid to form nanoparticles comprising said conductive polymer and said cellulose; quenching said acid hydrolysis reaction; separating said nanoparticles from said acid solution to obtain a colloidal solution of said nanoparticles; and casting said colloidal solution to obtain said nanocomposite film having a thickness suitable for optical transmission.
An apparatus for measuring the blood pressure, BP, of a user, the apparatus comprising: - a volume-clamp BP monitoring device that comprises a first pressure device for applying pressure to a first part of the body of the user, a first photoplethysmogram, PPG, sensor for obtaining a first PPG signal from the first part of the body of the user, and a control unit that is configured to analyse the first PPG signal, control the pressure of the first pressure device to maintain the first PPG signal at a constant level, and to determine the BP of the user from the pressure of the first pressure device; and - a second sensor for measuring a physiological characteristic of the user in a second part of the body of the user; wherein the apparatus is configured to analyse the measured physiological characteristic to determine a measure of the blood perfusion in the second part of the body of the user, and to determine whether to perform a recalibration of the volume-clamp BP monitoring device on the basis of changes in the blood perfusion; characterized in that the second sensor is separate from the first PPG sensor, and in that the second part of the body is separate from the first part of the body. - a volume-clamp BP monitoring device that comprises a first pressure device for applying pressure to a first part of the body of the user, a first photoplethysmogram, PPG, sensor for obtaining a first PPG signal from the first part of the body of the user, and a control unit that is configured to analyse the first PPG signal, control the pressure of the first pressure device to maintain the first PPG signal at a constant level, and to determine the BP of the user from the pressure of the first pressure device; and - a second sensor for measuring a physiological characteristic of the user in a second part of the body of the user;
A reformer tube apparatus, comprising: an axially aligned tubular structure; wherein the axially aligned tubular structure comprises a first portion having a first wall thickness; wherein the axially aligned tubular structure comprises a second portion having a second wall thickness; wherein the axially aligned tubular structure comprises a third portion having a transitioning wall thickness that joins the first portion to the second portion; wherein the internal diameter of the reformer tube apparatus, including the first portion, the second portion, and the third portion, is constant; and wherein the axially aligned tubular structure further comprises a primary flange section, wherein the primary flange section comprises a primary concentric flange disposed about a top portion thereof and extending perpendicularly outward from the axially aligned tubular structure; and wherein the axially aligned tubular structure further comprises a secondary flange section, wherein the secondary flange section comprises a secondary concentric flange disposed about a top portion of the primary concentric flange of the primary flange section. an axially aligned tubular structure; wherein the axially aligned tubular structure comprises a first portion having a first wall thickness; wherein the axially aligned tubular structure comprises a second portion having a second wall thickness; wherein the axially aligned tubular structure comprises a third portion having a transitioning wall thickness that joins the first portion to the second portion; wherein the internal diameter of the reformer tube apparatus, including the first portion, the second portion, and the third portion, is constant; and wherein the axially aligned tubular structure further comprises a primary flange section, wherein the primary flange section comprises a primary concentric flange disposed about a top portion thereof and extending perpendicularly outward from the axially aligned tubular structure; and wherein the axially aligned tubular structure further comprises a secondary flange section, wherein the secondary flange section comprises a secondary concentric flange disposed about a top portion of the primary concentric flange of the primary flange section.
A chimeric ErbB ligand binding molecule combining ErbB1 and ErbB4 domains through a SI linking domain and in which the ErbB4, SI, and the ErbB1 domains consist of LI, SI, LII subdomains and module 1 of SII subdomain respectively, wherein LI subdomain is from ErbB4, LII and the module 1 of the SII subdomain from ErbB1, and the SI subdomain joining LI and LII consists of portions from both ErbB4 and ErbB1, wherein the switch in the amino acid sequence from ErbB4 to the amino acid sequence from ErbB 1 occurs at the module 5 of the SI subdomain.
An injection mould comprising a first half and a second half, the second half comprising cooling channels configured around a mould cavity with a coolant being circulated through the cooling channels, the injection mould further comprising a heat transfer device for increasing cooling rate of the injection mould, wherein the heat transfer device is disposed inside the cooling channel at predefined portion, the heat transfer device partially covers the portion of the cooling channel for increasing heat transfer rate from the portion of the cooling channel to the coolant circulating therein thereby increases cooling rate of the injection mould wherein the heat transfer device further comprises: a first surface having configuration consistent with the cooling channel, the first surface rests against an inner surface of the portion the channel covering the portion partially; a second surface facing opposite to the first surface and toward inner portion of the cooling channel, the second surface is an uneven surface for increasing surface contact with the coolant and also creates turbulence in flowing coolant, wherein upon passing the coolant through the channels, the heat from the injection mould is transferred to the first surface of the heat transfer device through the inner surface of the channels and then to the coolant through the second surface, as the contact area and the turbulence in flow of the coolant is increased, heat transfer rate is also increases therebetween, wherein cross section of the first surface is consistent with the cross section of the channel, characterized in that cross section of the first surface is semicircular, wherein the uneven second surface provides flexibility along the width of the heat transfer device facilitating in positioning the heat transfer device in the channel. a first surface having configuration consistent with the cooling channel, the first surface rests against an inner surface of the portion the channel covering the portion partially; a second surface facing opposite to the first surface and toward inner portion of the cooling channel, the second surface is an uneven surface for increasing surface contact with the coolant and also creates turbulence in flowing coolant,
A rotating machine comprising: a rotatably provided rotor; and a resin-molded stator, the stator including: a stator core formed by laminating steel plates; a coil provided on the stator core; a terminal that is connected to a drawn-out wire section (41, 42) continuously connecting to an end of a conductor forming the coil and is connected to a lead wire; and a molded section that covers a coil end section of the coil near one end face of the stator core in a lamination direction of the laminated steel plates in the stator core, the terminal having a part connected near the one end face of the stator core to the drawn-out wire section included in the molded section, the terminal including an external connection part protruding from the molded section, the external connection part being connected to the lead wire; the rotating machine being characterized in that the external connection part protrudes from the molded section toward a rotating shaft of the rotor. a rotatably provided rotor; and a resin-molded stator, the stator including: a stator core formed by laminating steel plates; a coil provided on the stator core; a terminal that is connected to a drawn-out wire section (41, 42) continuously connecting to an end of a conductor forming the coil and is connected to a lead wire; and a molded section that covers a coil end section of the coil near one end face of the stator core in a lamination direction of the laminated steel plates in the stator core, the terminal having a part connected near the one end face of the stator core to the drawn-out wire section included in the molded section, the terminal including an external connection part protruding from the molded section, the external connection part being connected to the lead wire; the rotating machine being characterized in that the external connection part protrudes from the molded section toward a rotating shaft of the rotor. a stator core formed by laminating steel plates; a coil provided on the stator core; a terminal that is connected to a drawn-out wire section (41, 42) continuously connecting to an end of a conductor forming the coil and is connected to a lead wire; and a molded section that covers a coil end section of the coil near one end face of the stator core in a lamination direction of the laminated steel plates in the stator core, the terminal having a part connected near the one end face of the stator core to the drawn-out wire section included in the molded section, the terminal including an external connection part protruding from the molded section, the external connection part being connected to the lead wire; the rotating machine being characterized in that the external connection part protrudes from the molded section toward a rotating shaft of the rotor.
An instrument assembly for an acetabular prosthesis system, comprising: a member having a first side having a first engaging projection (56a-56c) configured to engage a complementary recess of an acetabular shell to rotationally hold the acetabular shell relative to the member; the member defining a guide-bore through the member, wherein the guide-bore is configured to guide a bit through the guide-bore and into a soft bearing liner placed within the acetabular shell; wherein the guide-bore is formed at a selected angle through the member along a guide-bore axis, wherein the guide-bore axis intersects an internal surface of the acetabular shell at a distance from a bearing liner connection section, characterized in that the member is configured to be placed in a first orientation relative to the acetabular shell to implant the acetabular shell within a subject and then placed in a second orientation to position the guide-bore relative to the soft bearing liner placed within the acetabular shell to form a pilot bore within the soft bearing liner and the member further includes tabs (80a-80c) extending from a second side to engage the acetabular shell to selectively fix the member relative to the acetabular shell during formation of the pilot bore.
An anomaly detection and cataloging system comprising: a handheld probe comprising: a probe tip; a user interface; a communications interface; a system controller, said probe operable, via said user interface, for transmitting, via said communications interface, a user selected anomaly type to said system controller, the anomaly type associated with a manufactured part, wherein an anomaly exists within the manufactured part; and a probe locating device operable to provide to said system controller a location associated with said probe tip touched to the anomaly, said system programmed to associate the user selected anomaly type with the location associated with said probe tip. a handheld probe comprising: a probe tip; a user interface; a communications interface; a probe tip; a user interface; a communications interface; a system controller, said probe operable, via said user interface, for transmitting, via said communications interface, a user selected anomaly type to said system controller, the anomaly type associated with a manufactured part, wherein an anomaly exists within the manufactured part; and a probe locating device operable to provide to said system controller a location associated with said probe tip touched to the anomaly, said system programmed to associate the user selected anomaly type with the location associated with said probe tip.
An organic light emitting diode display device comprising: a substrate having a luminescent region; a thin film transistor driver deposited on the substrate; a passivation film deposited to cover the thin film transistor driver; a color filter deposited on the passivation film in the luminescent region; a planarization film deposited to cover the color filter, wherein a portion of the passivation film overlapping the thin film transistor driver is free from the planarization film; a transparent metal layer deposited on the planarization film to overlap the luminescent region; a light blocking layer formed on the transparent metal layer to cover a side of the planarization film; an insulating film deposited on the transparent metal layer and the light blocking layer; a first electrode connected to the thin film transistor driver and overlapping the transparent metal layer, wherein the insulating film is interposed between the first electrode and the transparent metal layer and overlaps the luminescent region, the transparent metal layer, the insulating film and the first electrode constituting a capacitor; an organic light emitting layer deposited on the first electrode and configured to emit light through the luminescent region; and a second electrode deposited on the organic light emitting layer. a substrate having a luminescent region; a thin film transistor driver deposited on the substrate; a passivation film deposited to cover the thin film transistor driver; a color filter deposited on the passivation film in the luminescent region; a planarization film deposited to cover the color filter, wherein a portion of the passivation film overlapping the thin film transistor driver is free from the planarization film; a transparent metal layer deposited on the planarization film to overlap the luminescent region; a light blocking layer formed on the transparent metal layer to cover a side of the planarization film; an insulating film deposited on the transparent metal layer and the light blocking layer; a first electrode connected to the thin film transistor driver and overlapping the transparent metal layer, wherein the insulating film is interposed between the first electrode and the transparent metal layer and overlaps the luminescent region, the transparent metal layer, the insulating film and the first electrode constituting a capacitor; an organic light emitting layer deposited on the first electrode and configured to emit light through the luminescent region; and a second electrode deposited on the organic light emitting layer.
A system for transcatheter vascular grafting comprising: first and second catheters (100, 200) configured to form a hole in a wall of a blood vessel; a guidewire sized for insertion through a hole in a wall of a blood vessel; and a balloon catheter sized and shaped to transport a vascular graft through a blood vessel and a pericardial cavity, wherein each of the first and second catheters (100, 200) includes a wire (120, 230) sized and shaped to be passed through the wall of a blood vessel. first and second catheters (100, 200) configured to form a hole in a wall of a blood vessel; a guidewire sized for insertion through a hole in a wall of a blood vessel; and a balloon catheter sized and shaped to transport a vascular graft through a blood vessel and a pericardial cavity, wherein each of the first and second catheters (100, 200) includes a wire (120, 230) sized and shaped to be passed through the wall of a blood vessel.
An electronic control system for a turbopropeller engine having a gas turbine (2, 4, 5, 6) and a propeller, coupled to the gas turbine, the control system comprising a propeller control unit and a turbine control unit configured to jointly control engine power output based on an input request, wherein the propeller control unit comprises a first reference generator, configured to determine a reference propeller speed (N pref) based on the input request, and a first regulator, configured to regulate a propeller speed (N p), characterized in that: the first regulator is configured to control the angle of the propeller blades, in order to regulate a propeller speed (N p); the propeller control unit further comprises a reference correction stage configured to apply a correction to the reference propeller speed (N pref) and generate thereby a corrected reference propeller speed ( N pref), and in that the first regulator is configured to regulate the propeller speed (N p) based on the corrected reference propeller speed ( N pref) to achieve optimized efficiency; and wherein the reference correction stage of the propeller control unit is configured to determine an available maximum efficiency (η eff_max) and an actual efficiency (η eff_act), based on a measured engine operating point and environmental parameters, and to determine a reference speed correction (ΔN pcorr) for correction of the reference propeller speed (N pref) based on an efficiency error (e η) being a function of a difference between the maximum efficiency (η eff_max) and actual efficiency (η eff_act) values. the first regulator is configured to control the angle of the propeller blades, in order to regulate a propeller speed (N p); the propeller control unit further comprises a reference correction stage configured to apply a correction to the reference propeller speed (N pref) and generate thereby a corrected reference propeller speed ( N pref), and in that the first regulator is configured to regulate the propeller speed (N p) based on the corrected reference propeller speed ( N pref) to achieve optimized efficiency; and wherein the reference correction stage of the propeller control unit is configured to determine an available maximum efficiency (η eff_max) and an actual efficiency (η eff_act), based on a measured engine operating point and environmental parameters, and to determine a reference speed correction (ΔN pcorr) for correction of the reference propeller speed (N pref) based on an efficiency error (e η) being a function of a difference between the maximum efficiency (η eff_max) and actual efficiency (η eff_act) values.
System comprising a conveyor for conveying a tire component and a measuring unit, wherein the conveyor comprises a conveyor belt, wherein the conveyor belt comprises a belt body extending in a longitudinal direction and having a load conveying side, wherein the belt body, at the load conveying side, defines a first support area and a second support area for together supporting the tire component in a plane of conveyance, wherein the conveyor belt comprises a measuring slot extending in the longitudinal direction in the belt body at the load conveying side, wherein the measuring slot is located between the first support area and the second support area in a lateral direction perpendicular to the longitudinal direction, wherein the measuring slot is designed to be geometrically different from the belt body in the first support area and the second support area, wherein the conveyor belt is provided with a measuring surface recessed in the measuring slot from the plane of conveyance in a recess direction transverse to said plane of conveyance, wherein the measuring unit has a field of view, wherein the measuring unit is positioned relative to the conveyor such that the field of view overlaps with the measuring slot for measuring height values in said field of view, characterised in that the system further comprises a control unit that is configured for: - monitoring the height values measured by the measuring unit in the field of view; and - detecting a step in the height values at the measuring slot from a first height level below the plane of conveyance to a second height level above the plane of conveyance. - monitoring the height values measured by the measuring unit in the field of view; and - detecting a step in the height values at the measuring slot from a first height level below the plane of conveyance to a second height level above the plane of conveyance.