mhurhangee/ep-ind-claims huggingface dataset:
A branched connector (255, 400, 500) for high-density neural interfaces comprising a supporting structure (260, 405, 505); a main body (265, 420, 520) comprising a base portion of the supporting structure (260, 405,505) and a plurality of conductive traces (275,425,525) formed on the base portion, wherein the base portion of the supporting structure is comprised of one or more layers of dielectric material; wherein the branched connector further comprises: a plurality of plugs (280,430,530) extending from the main body, wherein each plug of the plurality of plugs comprises: a respective end portion of the supporting structure comprised of the one or more layers of dielectric material; and a subset of conductive traces (290, 435,535) from the plurality of conductive traces, wherein each trace from the subset of conductive traces terminates at a bond pad (295, 440,540) exposed on a surface (445,545) of the respective end portion of the supporting structure. a main body (265, 420, 520) comprising a base portion of the supporting structure (260, 405,505) and a plurality of conductive traces (275,425,525) formed on the base portion, wherein the base portion of the supporting structure is comprised of one or more layers of dielectric material; wherein the branched connector further comprises: a plurality of plugs (280,430,530) extending from the main body, wherein each plug of the plurality of plugs comprises: a respective end portion of the supporting structure comprised of the one or more layers of dielectric material; and a subset of conductive traces (290, 435,535) from the plurality of conductive traces, wherein each trace from the subset of conductive traces terminates at a bond pad (295, 440,540) exposed on a surface (445,545) of the respective end portion of the supporting structure. a respective end portion of the supporting structure comprised of the one or more layers of dielectric material; and a subset of conductive traces (290, 435,535) from the plurality of conductive traces, wherein each trace from the subset of conductive traces terminates at a bond pad (295, 440,540) exposed on a surface (445,545) of the respective end portion of the supporting structure.
A stabilizer assembly for an aircraft, the aircraft defining a longitudinal direction, a vertical direction, and a lateral direction, the aircraft comprising a fuselage extending between a forward end and an aft end along the longitudinal direction and a boundary layer ingestion fan mounted to the aft end of the fuselage, the stabilizer assembly comprising: a stabilizer extending between a root portion and a tip portion and extending between a leading edge and a trailing edge along the longitudinal direction, the stabilizer suitable for being mounted to the fuselage at the root portion; and a root fillet extending between the stabilizer and the fuselage, when the stabilizer is mounted to the fuselage, the root fillet defining a flow directing surface configured for redirecting a flow of higher velocity boundary layer air upward along the vertical direction away from the boundary layer ingestion fan; and characterised in that an airflow modifying element protrudes from a surface of the root fillet, the airflow modifying element configured for directing or reducing swirl in the flow of lower velocity boundary layer air ingested by the boundary layer ingestion fan. a stabilizer extending between a root portion and a tip portion and extending between a leading edge and a trailing edge along the longitudinal direction, the stabilizer suitable for being mounted to the fuselage at the root portion; and a root fillet extending between the stabilizer and the fuselage, when the stabilizer is mounted to the fuselage, the root fillet defining a flow directing surface configured for redirecting a flow of higher velocity boundary layer air upward along the vertical direction away from the boundary layer ingestion fan; and characterised in that an airflow modifying element protrudes from a surface of the root fillet, the airflow modifying element configured for directing or reducing swirl in the flow of lower velocity boundary layer air ingested by the boundary layer ingestion fan.
A shiplap arrangement for a gas turbine having an axis; the shiplap arrangement comprising: - a first and a second blade adjacent arranged along a circumferential direction centered in the gas turbine axis; each blade along a radial direction comprising a foot configured for coupling the blade to a rotor, a shank portion provided with a downstream closing wall, a platform and an airfoil; between the adjacent blades in the shank portion a cooling air cavity is provided that is downstream sealed by a shiplap coupling between the adjacent shank closing walls; the shiplap coupling comprising a circumferential projecting portion of the shank closing wall of the first blade and a corresponding receiving recess portion in the adjacent shank closing wall; - a radial seal arranged along the gap between the projecting portion and the recess portion of the shiplap coupling; characterized in that radial seal is housed at one side in a first radial groove realized in the projecting portion and at the other side in a second radial groove realized in the recess portion to provide a barrier against leakage flow passing through the shiplap coupling; and in that the shank is outwardly sealed by an axial seal arranged along the gap between the adjacent platforms. - a first and a second blade adjacent arranged along a circumferential direction centered in the gas turbine axis; each blade along a radial direction comprising a foot configured for coupling the blade to a rotor, a shank portion provided with a downstream closing wall, a platform and an airfoil; between the adjacent blades in the shank portion a cooling air cavity is provided that is downstream sealed by a shiplap coupling between the adjacent shank closing walls; the shiplap coupling comprising a circumferential projecting portion of the shank closing wall of the first blade and a corresponding receiving recess portion in the adjacent shank closing wall; - a radial seal arranged along the gap between the projecting portion and the recess portion of the shiplap coupling;
A radiation monitor comprising: a radiation emitting element which includes a light emitting part configured to emit light, and of an intensity corresponding to a dose rate of incident radiation; an optical fiber which is connected to the radiation emitting element and transmits the light emitted from the light emitting part; an electric pulse converter which is connected to the optical fiber and transmits one electric pulse for one photon of the transmitted light; an electric pulse detector which is connected to the electric pulse converter and counts the electric pulse transmitted from the electric pulse converter; an analyzer which is connected to the electric pulse detector and converts the electric pulse count rate obtained by the electric pulse detector into a radiation dose rate; and a wavelength filter which is provided in the middle of the optical fiber and allows a transmission of only light within a predetermined wavelength range; wherein the radiation emitting element includes a light emitting part, a housing which receives the light emitting part, and an intermediate member that is provided between the housing and the light emitting part and has a thermal emissivity smaller than a thermal emissivity of an inner surface of the housing, wherein the light emitting part is formed of transparent yttrium aluminum garnet as a base material and rare earth elements contained in the light transmitting material. a radiation emitting element which includes a light emitting part configured to emit light, and of an intensity corresponding to a dose rate of incident radiation; an optical fiber which is connected to the radiation emitting element and transmits the light emitted from the light emitting part; an electric pulse converter which is connected to the optical fiber and transmits one electric pulse for one photon of the transmitted light; an electric pulse detector which is connected to the electric pulse converter and counts the electric pulse transmitted from the electric pulse converter; an analyzer which is connected to the electric pulse detector and converts the electric pulse count rate obtained by the electric pulse detector into a radiation dose rate; and a wavelength filter which is provided in the middle of the optical fiber and allows a transmission of only light within a predetermined wavelength range; wherein the radiation emitting element includes a light emitting part, a housing which receives the light emitting part, and an intermediate member that is provided between the housing and the light emitting part and has a thermal emissivity smaller than a thermal emissivity of an inner surface of the housing, wherein the light emitting part is formed of transparent yttrium aluminum garnet as a base material and rare earth elements contained in the light transmitting material.
An electromagnetic induction wireless communication system for commmunicating near a human body, the system comprising: a magnetic antenna; an electric antenna; a tuning capacitor coupled to the magnetic antenna configured to tune the magnetic antenna; a controller configured to control the operation of the communication system; a signal source coupled to the controller configured to produce a communication signal used to drive one of the magnetic antenna and the electric antenna; a voltage control unit coupled to the signal source configured to: produce a modified communication signal having one of an amplitude difference, phase difference, and an amplitude and a phase difference from the communication signal used to drive the one of the magnetic antenna and the electric antenna; and use the modified communication signal to drive the other of the magnetic antenna and the electric antenna. a magnetic antenna; an electric antenna; a tuning capacitor coupled to the magnetic antenna configured to tune the magnetic antenna; a controller configured to control the operation of the communication system; a signal source coupled to the controller configured to produce a communication signal used to drive one of the magnetic antenna and the electric antenna; a voltage control unit coupled to the signal source configured to: produce a modified communication signal having one of an amplitude difference, phase difference, and an amplitude and a phase difference from the communication signal used to drive the one of the magnetic antenna and the electric antenna; and use the modified communication signal to drive the other of the magnetic antenna and the electric antenna. produce a modified communication signal having one of an amplitude difference, phase difference, and an amplitude and a phase difference from the communication signal used to drive the one of the magnetic antenna and the electric antenna; and use the modified communication signal to drive the other of the magnetic antenna and the electric antenna.
A process for purification of an oxydiphthalic anhydride, the process comprising: contacting a mixture comprising an oxydiphthalic anhydride, and at least one of a corresponding oxydiphthalic diacid, a corresponding oxydiphthalic tetraacid, a halophthalic anhydride, and a catalyst, with a solvent comprising methanol to provide a slurry; wherein the solvent is capable of solubilizing at least one of the corresponding oxydiphthalic diacid, the corresponding oxydiphthalic tetraacid, the halophthalic anhydride, and the catalyst at a temperature of 15 to 50°C; and wherein the oxydiphthalic anhydride is substantially insoluble in the solvent at a temperature of 15 to 50°C; and isolating the oxydiphthalic anhydride from the slurry. contacting a mixture comprising an oxydiphthalic anhydride, and at least one of a corresponding oxydiphthalic diacid, a corresponding oxydiphthalic tetraacid, a halophthalic anhydride, and a catalyst, an oxydiphthalic anhydride, and at least one of a corresponding oxydiphthalic diacid, a corresponding oxydiphthalic tetraacid, a halophthalic anhydride, and a catalyst, with a solvent comprising methanol to provide a slurry; wherein the solvent is capable of solubilizing at least one of the corresponding oxydiphthalic diacid, the corresponding oxydiphthalic tetraacid, the halophthalic anhydride, and the catalyst at a temperature of 15 to 50°C; and wherein the oxydiphthalic anhydride is substantially insoluble in the solvent at a temperature of 15 to 50°C; and isolating the oxydiphthalic anhydride from the slurry.
A fill level measuring device which operates according to a transit time method and applies electromagnetic waves, the device comprising: an echo curve detecting device for detecting a first and a second echo curve; wherein the fill level measuring device is designed such that the first echo curve depicts the reflection relations along a first measuring path (601, 701, 801, 905), along which a first measuring signal moves to a filling material surface or separating layer surface; wherein the level measuring device is designed such that the second echo curve depicts the reflection relations along a second measuring path (602, 702, 802, 906), along which a second measuring signal moves to the filling material surface or the separating layer surface; wherein the level measuring device is designed such that the two measuring signals require different transit times to the filling material surface or the separating layer surface, even if they were emitted simultaneously; wherein the two measuring signals are electromagnetic signals; further comprising: an evaluation device for evaluating the first and the second echo curve in order to calculate therefrom at least one characteristic value for an superimposed medium which is located above the filling material surface or the separating layer surface; wherein the at least one characteristic value is the product of permeability and permittivity. an echo curve detecting device for detecting a first and a second echo curve; wherein the fill level measuring device is designed such that the first echo curve depicts the reflection relations along a first measuring path (601, 701, 801, 905), along which a first measuring signal moves to a filling material surface or separating layer surface; wherein the level measuring device is designed such that the second echo curve depicts the reflection relations along a second measuring path (602, 702, 802, 906), along which a second measuring signal moves to the filling material surface or the separating layer surface; wherein the level measuring device is designed such that the two measuring signals require different transit times to the filling material surface or the separating layer surface, even if they were emitted simultaneously; wherein the two measuring signals are electromagnetic signals; further comprising: an evaluation device for evaluating the first and the second echo curve in order to calculate therefrom at least one characteristic value for an superimposed medium which is located above the filling material surface or the separating layer surface; wherein the at least one characteristic value is the product of permeability and permittivity. an evaluation device for evaluating the first and the second echo curve in order to calculate therefrom at least one characteristic value for an superimposed medium which is located above the filling material surface or the separating layer surface; wherein the at least one characteristic value is the product of permeability and permittivity.
A process for increasing the percentage weight fraction of resistant starch in corn starch which comprises expressing a heterologous starch synthase II in a corn plant that has an amylose content between 15% by weight and 40% by weight, wherein the amino acid sequence of the heterologous starch synthase II has an identity of at least 86% with amino acids 322 to 351 of the amino acid sequence represented under SEQ ID No. 2 and an identity of at least 83% with amino acids 423 to 462 of the amino acid sequence represented under SEQ ID No. 2 and an identity of at least 70% with amino acids 641 to 705 of the amino acid sequence represented under SEQ ID No. 2, wherein in the process the percentage weight fraction of resistant starch is increased by at least 10% compared with corn starches from corresponding corn plants which do not express a heterologous starch synthase II, and the DSC T-peak temperature of the corn starch is increased by at least 4°C, compared with corn starches from corresponding corn plants which do not express a heterologous starch synthase II.
A method for wireless communications by a base station, BS, comprising: detecting a decoding failure of at least one grant free transmission received from a first user equipment, UE; and in response to the detection, triggering at least a second UE to reduce interference between one or more uplink transmissions from the second UE and one or more uplink transmissions subsequent to the at least one grant free transmission from the first UE, wherein triggering the at least second UE to reduce interference comprises triggering the second UE, which is served by another BS, to reduce transmission power of the one or more uplink transmissions from the second UE. detecting a decoding failure of at least one grant free transmission received from a first user equipment, UE; and in response to the detection, triggering at least a second UE to reduce interference between one or more uplink transmissions from the second UE and one or more uplink transmissions subsequent to the at least one grant free transmission from the first UE, wherein triggering the at least second UE to reduce interference comprises triggering the second UE, which is served by another BS, to reduce transmission power of the one or more uplink transmissions from the second UE.
Clamping assembly for a steering column of an automotive vehicle, comprising a column body, a first plate connected to the rest of the vehicle structure and an elastic clamping means, which elastic clamping means is designed to secure the first plate to the column body, and the elastic clamping means comprises a base and at least a first folded axial tongue and a second folded axial tongue, the first folded axial tongue extending from a first axial end of the base substantially parallel with the base, characterised in that the clamping assembly comprises a secondplate connected to the column body, the elastic clamping means being designed to secure the second plate by clamping, and in that the second folded axial tongue extends from a second axial end of the base, opposite the first axial end, substantially parallel with the base, and in that the first and second tongues (24, 26) are folded from a same side of the base so that the second tongue is disposed between the base and the first tongue.
An exposure method of exposing a substrate with an illumination light via a projection optical system, the method comprising: moving a stage that holds the substrate, the stage being supported in a noncontact manner on a base placed below the projection optical system; in an encoder system having one of a grating section (39Y 1, 39Y 2, 39X 1, 39X 2) and a head (62A, 62B, 62C, 62D) provided at the stage and the other of the grating section and the head supported by a frame member that supports the projection optical system, measuring positional information of the stage by a plurality of the heads that face the grating section; and controlling a movement of the stage based on the positional information measured by the encoder system, wherein during a movement of the stage, one head of the plurality of the heads used in the measurement is switched to another head, after the switching, positional information of the stage is measured by a plurality of heads that includes remaining heads other than the one head of the plurality of the heads and the another head, based on the positional information measured by the plurality of the heads used before the switching, correction information for controlling the movement of the stage using the another head after the switching is obtained, and at least in an exposure operation of the substrate, positional information of the stage is measured by the encoder system. moving a stage that holds the substrate, the stage being supported in a noncontact manner on a base placed below the projection optical system; in an encoder system having one of a grating section (39Y 1, 39Y 2, 39X 1, 39X 2) and a head (62A, 62B, 62C, 62D) provided at the stage and the other of the grating section and the head supported by a frame member that supports the projection optical system, measuring positional information of the stage by a plurality of the heads that face the grating section; and controlling a movement of the stage based on the positional information measured by the encoder system, wherein during a movement of the stage, one head of the plurality of the heads used in the measurement is switched to another head, after the switching, positional information of the stage is measured by a plurality of heads that includes remaining heads other than the one head of the plurality of the heads and the another head, based on the positional information measured by the plurality of the heads used before the switching, correction information for controlling the movement of the stage using the another head after the switching is obtained, and at least in an exposure operation of the substrate, positional information of the stage is measured by the encoder system.
Composite particles for an electrochemical device electrode comprising: an electrode active material; a particulate binder resin; a water-soluble polymer which is a polymer which has an undissolved fraction of less than 10.0% by weight when 0.5 g of the polymer is dissolved in 100 g of pure water at 25°C; and a composite of a water-soluble polymer (d') which is a polymer which has an undissolved fraction of less than 10.0% by weight when 0.5 g of the polymer is dissolved in 100 g of pure water at 25°C, and crystalline cellulose (d"). an electrode active material; a particulate binder resin; a water-soluble polymer which is a polymer which has an undissolved fraction of less than 10.0% by weight when 0.5 g of the polymer is dissolved in 100 g of pure water at 25°C; and a composite of a water-soluble polymer (d') which is a polymer which has an undissolved fraction of less than 10.0% by weight when 0.5 g of the polymer is dissolved in 100 g of pure water at 25°C, and crystalline cellulose (d").