mhurhangee/patent-ind-claim-en huggingface dataset:
Inverter arrangement (WRA) for a photovoltaic system. with several DC voltage input connections (E1, E2, E3), to each of which a photovoltaic generator (PV1, PV2) can be connected and of which at least one a DC voltage input connection (E3) is suitable as an alternative to a connection to a storage battery (BAT). whereby all DC voltage input connections (E1, E2, E3) are connected jointly via a DC voltage converter (W1, W2, W3) to the input (ZK) of an inverter bridge (DC/AC) and with a controller (C) which is adjusted to control the DC voltage converters (W1, W2, W3) and the inverter bridge (DC/AC) and which is adjusted to detect, based on voltage and/or current patterns logged by at least one DC voltage input connection (E3), if a storage battery (BAT) is connected characterized by the fact: that at least the DC voltage converter (W1, W2, W3) at the DC voltage input connection (E1, E2, E3) which is suitable as an alternative to the connection to a storage battery (BAT) is structured to be bi-directional that at least one communication interface (K1, K2, K3) is provided, which is able to communicate with the internal battery management (BMS) of the storage battery (BAT) which may be connected and that the controller (C) is able, using data from the communication interface (K1, K2, K3) to detect a storage battery (BAT) connected to a DC voltage input connection (E1, E2, E3) that at least the DC voltage converter (W1, W2, W3) at the DC voltage input connection (E1, E2, E3) which is suitable as an alternative to the connection to a storage battery (BAT) is structured to be bi-directional that at least one communication interface (K1, K2, K3) is provided, which is able to communicate with the internal battery management (BMS) of the storage battery (BAT) which may be connected and that the controller (C) is able, using data from the communication interface (K1, K2, K3) to detect a storage battery (BAT) connected to a DC voltage input connection (E1, E2, E3)
An interchangeable attachment device comprising: a first attachment interface arranged to support a first component ; a second attachment interface supporting at least one second component ; wherein the first and second attachment interfaces define cooperating attachment portions, respectively, arranged for securing an end portion of the first attachment interface to an end portion of the second attachment interface to form an attachment junction defined along the width of both the first and second attachment interfaces , whereat the first and second attachment interfaces are coextensive with one another, wherein the attachment portion of the first attachment interface comprises a protruding portion arranged to slidably engage a receiving portion in an insertion direction (D INS ) parallel with the width of the attachment junction and defined by the second attachment interface , the interchangeable attachment device being characterized in that the protruding portion is located between opposed shoulders of a body of the first attachment interface on opposed sides along the width of the attachment junction , the opposed shoulders being arranged to abut a corresponding portion of a top-most surface of a body of the second attachment interface in an attached configuration such that the interchangeable attachment device forms a smooth, continuous, and substantially unitary structure with no gaps defined between the abutting surfaces of the end portions of the first and second attachment interfaces and along side portions of the first and second attachment interfaces . a first attachment interface arranged to support a first component ; a second attachment interface supporting at least one second component ; wherein the first and second attachment interfaces define cooperating attachment portions, respectively, arranged for securing an end portion of the first attachment interface to an end portion of the second attachment interface to form an attachment junction defined along the width of both the first and second attachment interfaces , whereat the first and second attachment interfaces are coextensive with one another, wherein the attachment portion of the first attachment interface comprises a protruding portion arranged to slidably engage a receiving portion in an insertion direction (D INS ) parallel with the width of the attachment junction and defined by the second attachment interface , the interchangeable attachment device being characterized in that the protruding portion is located between opposed shoulders of a body of the first attachment interface on opposed sides along the width of the attachment junction , the opposed shoulders being arranged to abut a corresponding portion of a top-most surface of a body of the second attachment interface in an attached configuration such that the interchangeable attachment device forms a smooth, continuous, and substantially unitary structure with no gaps defined between the abutting surfaces of the end portions of the first and second attachment interfaces and along side portions of the first and second attachment interfaces .
An apparatus for use in an automated environment , the automated environment including at least a first automated assembly (M1), at least one portable wireless information device , WID, and a controller for controlling the first automated assembly, the first automated assembly (M1) including a plurality of components that facilitate an automated process, the apparatus comprising: a stationary human-machine interface device , HMI, that is one of the plurality of components included in the first automated assembly and that is linked to the controller for at least one of providing information thereto and receiving information therefrom to facilitate at least a sub-process associated with the automated process, the stationary human-machine interface device, HMI, including at least a first wireless receiver for receiving wireless signals from the at least one portable WID; and a processor receiving signals from the first wireless receiver, said signals depending on the wireless signals received by the first wireless receiver, and running location determining software for determining the location of the at least one portable WID as a function of the signal strength or the time of flight of the wireless signals received by the first wireless receiver. a stationary human-machine interface device , HMI, that is one of the plurality of components included in the first automated assembly and that is linked to the controller for at least one of providing information thereto and receiving information therefrom to facilitate at least a sub-process associated with the automated process, the stationary human-machine interface device, HMI, including at least a first wireless receiver for receiving wireless signals from the at least one portable WID; and a processor receiving signals from the first wireless receiver, said signals depending on the wireless signals received by the first wireless receiver, and running location determining software for determining the location of the at least one portable WID as a function of the signal strength or the time of flight of the wireless signals received by the first wireless receiver.
An organic-inorganic adhesive composition suitable for improving adhesion between an inorganic gas barrier layer and various organic materials used in a device, containing a silane compound having an acryloxy group, a silane compound having an amino group and an isocyanate-based compound; wherein the isocyanate-based compound comprises at least one or more selected from a group consisting of a monomer, an oligomer, or a polymer which has an isocyanate group.
A catheter assembly , comprising: a flexible elongate member including a distal portion and a proximal portion ; a crown element coupled to the distal portion, wherein the crown element includes an annular ring , a first post and, a second post , and wherein the first post and the second post extend perpendicularly from the annular ring; a first pullwire anchored to the annular ring by a first loop of the first pullwire looped around the annular ring at the first post, the first pullwire extending along the flexible elongate member from the crown element to the proximal portion of the flexible elongate member such that translation of the first pullwire in a proximal direction deflects the distal portion in a first direction and a second direction; and a second pullwire anchored to the annular ring by a second loop of the second pullwire looped around the annular ring at the second post, the second pullwire extending along the flexible elongate member from the crown element to the proximal portion of the flexible elongate member such that translation of the second pullwire deflects the distal portion in a third direction and a fourth direction. a flexible elongate member including a distal portion and a proximal portion ; a crown element coupled to the distal portion, wherein the crown element includes an annular ring , a first post and, a second post , and wherein the first post and the second post extend perpendicularly from the annular ring; a first pullwire anchored to the annular ring by a first loop of the first pullwire looped around the annular ring at the first post, the first pullwire extending along the flexible elongate member from the crown element to the proximal portion of the flexible elongate member such that translation of the first pullwire in a proximal direction deflects the distal portion in a first direction and a second direction; and a second pullwire anchored to the annular ring by a second loop of the second pullwire looped around the annular ring at the second post, the second pullwire extending along the flexible elongate member from the crown element to the proximal portion of the flexible elongate member such that translation of the second pullwire deflects the distal portion in a third direction and a fourth direction.
A voltage regulator, comprising: an error amplifier circuit for amplifying a difference between a divided voltage (Vfb) obtained by dividing an output voltage (Vout) output from an output transistor and a reference voltage (Vref), and outputting the amplified difference to control a gate of the output transistor ; an overshoot control circuit for detecting an occurrence of an overshoot in the output voltage (Vout) and limiting a current of the output transistor ; and characterized by a non-regulated state detection circuit for detecting that the voltage regulator is in a non-regulated state based on the output voltage and the current flowing through the output transistor, the overshoot control circuit having an operating current controlled by a detection signal (Vdet) of the non-regulated state detection circuit , wherein the overshoot control circuit includes an amplifier having the reference voltage (Vref) and the divided voltage (Vfb) as inputs, and a bias circuit having the detection signal (Vdet) of the non-regulated state detection circuit as an input, the bias circuit being adapted to control an operating current of the amplifier based on the detection signal (Vdet). an error amplifier circuit for amplifying a difference between a divided voltage (Vfb) obtained by dividing an output voltage (Vout) output from an output transistor and a reference voltage (Vref), and outputting the amplified difference to control a gate of the output transistor ; an overshoot control circuit for detecting an occurrence of an overshoot in the output voltage (Vout) and limiting a current of the output transistor ; and characterized by a non-regulated state detection circuit for detecting that the voltage regulator is in a non-regulated state based on the output voltage and the current flowing through the output transistor, the overshoot control circuit having an operating current controlled by a detection signal (Vdet) of the non-regulated state detection circuit , wherein the overshoot control circuit includes an amplifier having the reference voltage (Vref) and the divided voltage (Vfb) as inputs, and a bias circuit having the detection signal (Vdet) of the non-regulated state detection circuit as an input, the bias circuit being adapted to control an operating current of the amplifier based on the detection signal (Vdet).
Pressure-sensitive adhesive strip which is redetachable without residue or destruction by extensive stretching substantially within the bond plane, comprising a layer of adhesive, the layer of adhesive consisting of a pressure-sensitive adhesive which is constructed on the basis of vinylaromatic block copolymers and tackifying resins, with selection to an extent of at least 75% by weight (based on the total resin content) of a resin having a DACP (diacetone alcohol cloud point) of greater than -20°C, preferably greater than 0°C, determined as per test method "DACP" in the description, and a softening temperature (ring & ball, ASTM E28) of not less than 70°C, preferably not less than 100°C, characterized in that the pressure-sensitive adhesive has been foamed by virtue of comprising expanded microballoons.
A facepiece that covers a face of a wearer, the facepiece comprising: a front surface plate that is a transparent plate-like member having a size that can cover the face of the wearer; and a rotation mechanism passing through the front surface plate on either a right or left side of the wearer and being rotatable with respect to the front surface plate, wherein the rotation mechanism includes: a first member fixed to the facepiece and having an opening; and a second member fitted into the opening to be rotatable with respect to the first member and having a path, the path passing through the front surface plate and allowing gas to flow therethrough, and wherein one end of the rotation mechanism is connected to a gas supply line and pressure detection line , and the other end of the rotation mechanism is connected to the front surface plate . a front surface plate that is a transparent plate-like member having a size that can cover the face of the wearer; and a rotation mechanism passing through the front surface plate on either a right or left side of the wearer and being rotatable with respect to the front surface plate, wherein the rotation mechanism includes: a first member fixed to the facepiece and having an opening; and a second member fitted into the opening to be rotatable with respect to the first member and having a path, the path passing through the front surface plate and allowing gas to flow therethrough, and wherein one end of the rotation mechanism is connected to a gas supply line and pressure detection line , and the other end of the rotation mechanism is connected to the front surface plate . a first member fixed to the facepiece and having an opening; and a second member fitted into the opening to be rotatable with respect to the first member and having a path, the path passing through the front surface plate and allowing gas to flow therethrough, and wherein one end of the rotation mechanism is connected to a gas supply line and pressure detection line , and the other end of the rotation mechanism is connected to the front surface plate .
A surgical gown comprising: a material web delimited by a first lateral edge extending in an approximately rectilinear manner and a second lateral edge preferably extending approximately parallel to the first lateral edge, and by an upper edge which connects the two lateral edges to each other and a lower edge which connects the lateral edges to each other; a first sleeve starting from a first opening in the material web and applied to the material web ; and a second sleeve starting from a second opening in the material web and applied to the material web , wherein the first opening is arranged between the first lateral edge and the second opening and the openings are arranged closer to the upper edge than the lower edge , wherein a fitting aid forming an extension to the material web is formed at least in the area of the top half of at least one lateral edge that is adjacent to the upper edge , characterised in that a fastening arrangement which can be used to produce a detachable fastening to a packaging of the surgical gown is provided on the material web in the area of the upper end of the second lateral edge .
A method of assaying enzyme activity using an antibody-enzyme complex, wherein peroxidase is used as an enzyme of the antibody-enzyme complex, and an androsterone derivative represented by the following formula is used as a substrate of the enzyme, wherein X represents -O-CO-R (provided that R represents a C 1-6 alkyl group or a phenyl group), Y 1 and Y 2 represent together an oxygen atom, or Y 1 represents hydrogen, and Y 2 represents a C 1-6 alkoxy group, or a C 1-6 alkyl group when the androsterone derivative represented by the formula is used as a substrate of peroxidase, and a quantification of a product of the enzyme reaction is performed by producing thio-NADH and/or thio-NADPH by enzyme cycling reaction using NADH and/or NADPH, thio-NAD and/or thio-NADP, and hydroxysteroid dehydrogenase (HSD), and assaying the amount of the produced thio-NADH and/or thio-NADPH, or measuring the change of the color by the produced thio-NADH and/or thio-NADPH.
A resin composition comprising a resin component; and 600 parts by weight or more of thermally conductive fillers relative to 100 parts by weight of the resin component, wherein the thermally conductive fillers comprise a first thermally conductive filler having a D50 particle diameter of 35 μm or more, a second thermally conductive filler having a D50 particle diameter in a range of 15 μm to 30 μm, and a third thermally conductive filler having a D50 particle diameter of 1 to 4 μm, measured with a MASTERSIZER3000 instrument from Marvern Inc., based on ISO-13320 standard, wherein ethanol is used as a solvent upon measurement and the scattered laser light is analysed using the Mie theory, 30 to 50 wt% of the first thermally conductive filler, 25 to 45 wt% of the second thermally conductive filler and 15 to 35 wt% of the third thermally conductive filler are contained, based on the total weight of the first to third thermally conductive fillers, and wherein at least one of the first to third thermally conductive fillers has a sphericity of less 0 95 wherein the thermally conductive fillers comprise a first thermally conductive filler having a D50 particle diameter of 35 μm or more, a second thermally conductive filler having a D50 particle diameter in a range of 15 μm to 30 μm, and a third thermally conductive filler having a D50 particle diameter of 1 to 4 μm, measured with a MASTERSIZER3000 instrument from Marvern Inc., based on ISO-13320 standard, wherein ethanol is used as a solvent upon measurement and the scattered laser light is analysed using the Mie theory, 30 to 50 wt% of the first thermally conductive filler, 25 to 45 wt% of the second thermally conductive filler and 15 to 35 wt% of the third thermally conductive filler are contained, based on the total weight of the first to third thermally conductive fillers, and wherein at least one of the first to third thermally conductive fillers has a sphericity of less 0 95
A method of wireless communication impairment correction, comprising: obtaining , by a transmitter device, amplitude modulation to amplitude modulation, AM-AM, and amplitude modulation to phase modulation, AM-PM, indications for an intended receiver device; modeling non-linear impairments experienced by a transmit path based at least on the obtained AM-AM and AM-PM indications; modeling linear impairments caused by a propagation channel between the transmitter device and the intended receiver device; generating a modeled error signal of a communication path based at least on the modeled non-linear impairments and the modeled linear impairments, wherein the communication path comprises the transmit path and the propagation channel; sending, by the transmitter device, a transmit signal to transmitter circuitry of the transmitter device; performing , by the transmitter circuitry of the transmitter device, non-linear precoding of the transmit signal for the intended receiver device based at least in part on subtracting the modeled error signal from the transmit signal to correct the transmit signal for non-linear impairments in the transmit path of the transmitter device and linear impairments in the propagation channel; and transmitting , by the transmitter device, the resulting non-linear precoded transmit signal to the intended receiver device by applying beamforming precoding. obtaining , by a transmitter device, amplitude modulation to amplitude modulation, AM-AM, and amplitude modulation to phase modulation, AM-PM, indications for an intended receiver device; modeling non-linear impairments experienced by a transmit path based at least on the obtained AM-AM and AM-PM indications; modeling linear impairments caused by a propagation channel between the transmitter device and the intended receiver device; generating a modeled error signal of a communication path based at least on the modeled non-linear impairments and the modeled linear impairments, wherein the communication path comprises the transmit path and the propagation channel; sending, by the transmitter device, a transmit signal to transmitter circuitry of the transmitter device; performing , by the transmitter circuitry of the transmitter device, non-linear precoding of the transmit signal for the intended receiver device based at least in part on subtracting the modeled error signal from the transmit signal to correct the transmit signal for non-linear impairments in the transmit path of the transmitter device and linear impairments in the propagation channel; and transmitting , by the transmitter device, the resulting non-linear precoded transmit signal to the intended receiver device by applying beamforming precoding.
A seeded sublimation method of growing large single crystals of silicon carbide with reduced defects, the method comprising: nucleating growth on a seed crystal growth face that is 4°off-axis from the plane of the seed crystal ; while establishing a major growth temperature gradient between the silicon carbide seed crystal and a silicon carbide source composition that is perpendicular to the basal plane of the off-axis crystal, positioning the seed crystal on a seed holder with the macroscopic growth face of the seed crystal at an angle of 86° with respect to the major growth temperature gradient . nucleating growth on a seed crystal growth face that is 4°off-axis from the plane of the seed crystal ; while establishing a major growth temperature gradient between the silicon carbide seed crystal and a silicon carbide source composition that is perpendicular to the basal plane of the off-axis crystal, positioning the seed crystal on a seed holder with the macroscopic growth face of the seed crystal at an angle of 86° with respect to the major growth temperature gradient .
A computer-implemented method of processing digital image data, comprising: determining , by an encoder (12; 12a) configured to map a first digital image (x1) to an extended latent space (SP-W+) associated with a generator (14; 14a) of a generative adversarial network, GAN, system , a noise prediction (PRED-NOISE-x1) associated with the first digital image (x1), determining , by the generator of the GAN system , at least one further digital image (x') based on the noise prediction (PRED-NOISE-x1) associated with the first digital image (x1) and a plurality (LAT-VAR) of latent variables associated with the extended latent space (SP-W+).