mhurhangee/ep-ind-claims huggingface dataset:
A computer-readable medium on which is stored instructions which when executed by a computer perform a method of copying a portion of text or data (510, 520) from a second document into a first document, comprising: providing an Extensible Markup Language, XML, schema which provides an XML element that is used to markup and describe the portion of text or data of the second document such that style or other formatting properties applied to said portion of text or data are treated separately from style or formatting properties associated with the first document into which said portion of text or data is inserted; wrapping the portion of text or data in the XML element, wherein a markup language annotation applied to the portion of text or data identifies formatting information associated with the portion of text or data and wherein the portion of text or data points to or references the XML schema; inserting the portion of text or data wrapped in the XML element into the first document; and parsing, by a parsing application associated with the first document, the first document, wherein parsing comprises when the parsing application encounters the XML element wrapping the portion of text or data, the parsing application refers to the XML schema to learn that the formatting information wrapped inside the XML element is to be treated particularly for the portion of text or data inserted into the first document without regard to conflicting formatting properties associated with the first document. providing an Extensible Markup Language, XML, schema which provides an XML element that is used to markup and describe the portion of text or data of the second document such that style or other formatting properties applied to said portion of text or data are treated separately from style or formatting properties associated with the first document into which said portion of text or data is inserted; wrapping the portion of text or data in the XML element, wherein a markup language annotation applied to the portion of text or data identifies formatting information associated with the portion of text or data and wherein the portion of text or data points to or references the XML schema; inserting the portion of text or data wrapped in the XML element into the first document; and parsing, by a parsing application associated with the first document, the first document, wherein parsing comprises when the parsing application encounters the XML element wrapping the portion of text or data, the parsing application refers to the XML schema to learn that the formatting information wrapped inside the XML element is to be treated particularly for the portion of text or data inserted into the first document without regard to conflicting formatting properties associated with the first document.
A method for encoding an audio signal, the method comprising: classifying an input frame as either a speech frame or a generic audio frame, the input frame is based on the audio signal; producing an encoded bitstream and a corresponding processed frame based on the input frame; producing an enhancement layer encoded bitstream based on a difference between the input frame and the processed frame; and multiplexing the enhancement layer encoded bitstream, a codeword, and either a speech encoded bitstream or a generic audio encoded bitstream into a combined bitstream based on whether the codeword indicates that the input frame is classified as a speech frame or as a generic audio frame, wherein the encoded bitstream is either a speech encoded bitstream or a generic audio encoded bitstream. classifying an input frame as either a speech frame or a generic audio frame, the input frame is based on the audio signal; producing an encoded bitstream and a corresponding processed frame based on the input frame; producing an enhancement layer encoded bitstream based on a difference between the input frame and the processed frame; and multiplexing the enhancement layer encoded bitstream, a codeword, and either a speech encoded bitstream or a generic audio encoded bitstream into a combined bitstream based on whether the codeword indicates that the input frame is classified as a speech frame or as a generic audio frame, wherein the encoded bitstream is either a speech encoded bitstream or a generic audio encoded bitstream.
A wheel to be used in a railway vehicle, the wheel comprising: a boss that forms an inner circumferential portion of the wheel and into which an axle of the railway vehicle is to be inserted; a rim that forms an outer circumferential portion of the wheel and includes a tread to come into contact with a top surface of a rail on which the railway vehicle travels and a flange protruding outward from the tread in a radial direction of the wheel, the rim positioned so as to be outward from the boss in a track-width direction; and a web that has an annular shape and connects the boss and the rim, wherein when the wheel is viewed in a longitudinal section, the web has a plate-thickness center line having a linear shape, the plate-thickness center line is inclined and characterized in that the plate-thickness center line is inclined such that the plate-thickness center line approaches the flange side as the plate-thickness center line extends outward in the radial direction, and of both ends of the plate-thickness center line, an outer end (Aa) that is positioned more outward in the radial direction is positioned between the flange and a center of the tread in an axial direction of the wheel. a boss that forms an inner circumferential portion of the wheel and into which an axle of the railway vehicle is to be inserted; a rim that forms an outer circumferential portion of the wheel and includes a tread to come into contact with a top surface of a rail on which the railway vehicle travels and a flange protruding outward from the tread in a radial direction of the wheel, the rim positioned so as to be outward from the boss in a track-width direction; and a web that has an annular shape and connects the boss and the rim, wherein when the wheel is viewed in a longitudinal section, the web has a plate-thickness center line having a linear shape, the plate-thickness center line is inclined and characterized in that the plate-thickness center line is inclined such that the plate-thickness center line approaches the flange side as the plate-thickness center line extends outward in the radial direction, and of both ends of the plate-thickness center line, an outer end (Aa) that is positioned more outward in the radial direction is positioned between the flange and a center of the tread in an axial direction of the wheel.
A method for key management in a field-programmable integrated part of an integrated circuit, the method comprising: - loading a hardware configuration for the field-programmable integrated part into the field-programmable integrated part, wherein the hardware configuration includes a key derivation functionality, and - deriving, using the key derivation functionality, a cryptographic key based on information provided in the field-programmable integrated part, the information comprising at least one of - a fingerprint of a bitstream of the hardware configuration, - hardware related information. - loading a hardware configuration for the field-programmable integrated part into the field-programmable integrated part, wherein the hardware configuration includes a key derivation functionality, and - deriving, using the key derivation functionality, a cryptographic key based on information provided in the field-programmable integrated part, the information comprising at least one of - a fingerprint of a bitstream of the hardware configuration, - hardware related information.
Composition comprising at least: a) a polyamide matrix; b) from 2% to 30% by weight of alumina; c) from 15% to 50% by weight of graphite; and d) from 5% to 40% by weight of a flame-retardant system; the percentages by weight are expressed with respect to the total weight of the composition. a) a polyamide matrix; b) from 2% to 30% by weight of alumina; c) from 15% to 50% by weight of graphite; and d) from 5% to 40% by weight of a flame-retardant system;
A substrate processing machine, comprising: a base; a module having a housing comprising a front wall, a left wall and a right wall, and provided with an opening portion open at an end surface of the module facing the left-right direction in which the modules can be arranged side by side in order to form a production line; a device (30 - 35) configured to perform a predetermined operation contributing to the production of a substrate; wherein the housing comprises the device (30 - 35); and wherein the module is disposed detachably on an upper wall of the base configured to be switched in a rear-front direction between a production position where the substrate is produced and an offset position that deviates from the production position relative to the base; characterized in that the device (30 - 35) is configured to operate in the production position and the offset position; and wherein the operation speed of the device (30 - 35) performing the predetermined operation in the offset position is slower than the operation speed of the device (30 - 35) performing the predetermined operation in the production position. a base; a module having a housing comprising a front wall, a left wall and a right wall, and provided with an opening portion open at an end surface of the module facing the left-right direction in which the modules can be arranged side by side in order to form a production line; a device (30 - 35) configured to perform a predetermined operation contributing to the production of a substrate; wherein the housing comprises the device (30 - 35); and wherein the module is disposed detachably on an upper wall of the base configured to be switched in a rear-front direction between a production position where the substrate is produced and an offset position that deviates from the production position relative to the base; characterized in that the device (30 - 35) is configured to operate in the production position and the offset position; and wherein the operation speed of the device (30 - 35) performing the predetermined operation in the offset position is slower than the operation speed of the device (30 - 35) performing the predetermined operation in the production position.
A safe optoelectronic distance sensor for monitoring a hazardous zone at a movable machine part having a protected zone, wherein the safe distance sensor is arranged at the movable machine part, wherein a tool is arranged at the movable machine part, wherein a plurality of said distance sensors are arranged in a modular manner at said movable machine part and the protected zone is adapted to the tool, wherein the distance sensors are time of flight sensors and the distance sensors each have at least one light transmitter and at least one light receiver, characterized in that the light receiver of each distance sensor has at least one array of single photon avalanche diodes, with the light transmitter being arranged in a first housing chamber and the light receiver being arranged in a second adjacent housing chamber in each distance sensor, with the housing chambers being optically isolated so that no direct optical connection is present between the light transmitter and the light receiver, and with the protected zone of individual distance sensors being linear or areal.
A method for establishing whether a microorganism is potentially resistant to an antimicrobial compound, said method comprising the steps of (a) providing a reference mass spectrum of the antimicrobial compound or its enzymatic modification product, wherein said modification comprises enzymatic inactivation or enzymatic degradation of said antimicrobial compound; (b) exposing a microorganism, a cell lysate thereof, or a growth medium supernatant thereof, to said antimicrobial compound in aqueous liquid to thereby provide an exposed sample; (c) acquiring a mass spectrum of the exposed sample; (d) comparing the mass spectrum acquired in step (c) with the reference mass spectrum of step (a), and (e) determining from said comparison of mass spectra in step (d) whether modification of said antimicrobial compound has occurred following said exposure, and (f) establishing from said determination in step (e) that said microorganism is potentially resistant to said antimicrobial compound when said modification is observed in step (e). (a) providing a reference mass spectrum of the antimicrobial compound or its enzymatic modification product, wherein said modification comprises enzymatic inactivation or enzymatic degradation of said antimicrobial compound; (b) exposing a microorganism, a cell lysate thereof, or a growth medium supernatant thereof, to said antimicrobial compound in aqueous liquid to thereby provide an exposed sample; (c) acquiring a mass spectrum of the exposed sample; (d) comparing the mass spectrum acquired in step (c) with the reference mass spectrum of step (a), and (e) determining from said comparison of mass spectra in step (d) whether modification of said antimicrobial compound has occurred following said exposure, and (f) establishing from said determination in step (e) that said microorganism is potentially resistant to said antimicrobial compound when said modification is observed in step (e).
Terminal for a wireless network, the terminal being adapted to receive a control message; the terminal being further adapted to read from one of a set of alternative tables based on the control message; wherein the terminal is adapted to perform modulation configuration based on information read from the table; characterised in that the terminal is specifically adapted to receive the control message when the control message comprises a parameter configuring a modulation and coding scheme, MCS, table for both of two measurement subframe sets and at the same time configuring a channel quality indication, CQI, table for one of the measurement subframe sets. the terminal being further adapted to read from one of a set of alternative tables based on the control message; wherein the terminal is adapted to perform modulation configuration based on information read from the table; characterised in that the terminal is specifically adapted to receive the control message when the control message comprises a parameter configuring a modulation and coding scheme, MCS, table for both of two measurement subframe sets and at the same time configuring a channel quality indication, CQI, table for one of the measurement subframe sets.
An elevator counterweight assembly, comprising: a counterweight structure; at least one safety brake (12a, 12b) mounted on the counterweight structure a safety actuation mechanism, comprising a connection for a suspension member, wherein the safety actuation mechanism is configured to move, relative to the counterweight structure, between a normal position, and a safety position, wherein in the safety position the safety actuation mechanism is arranged to actuate the at least one safety brake (12a, 12b) and thereby brake the counterweight structure; characterized by further comprising: a mechanical actuator, configured, when actuated, to apply a force to the safety actuation mechanism and thereby move the safety actuation mechanism from the normal position to the safety position. a counterweight structure; at least one safety brake (12a, 12b) mounted on the counterweight structure a safety actuation mechanism, comprising a connection for a suspension member, wherein the safety actuation mechanism is configured to move, relative to the counterweight structure, between a normal position, and a safety position, wherein in the safety position the safety actuation mechanism is arranged to actuate the at least one safety brake (12a, 12b) and thereby brake the counterweight structure; characterized by further comprising: a mechanical actuator, configured, when actuated, to apply a force to the safety actuation mechanism and thereby move the safety actuation mechanism from the normal position to the safety position.
A disc brake for a vehicle comprising: a base body; a support pin attached to the base body; and a brake arm swingably supported to the base body about the support pin, wherein one end portion of the brake arm is pressed by an actuator to press a brake pad provided on the other end portion of the brake arm against a disc rotor; characterized by a vibration isolating rubber part provided between the support pin and the brake arm. a base body; a support pin attached to the base body; and a brake arm swingably supported to the base body about the support pin, wherein one end portion of the brake arm is pressed by an actuator to press a brake pad provided on the other end portion of the brake arm against a disc rotor;
A duct liner assembly for a gas turbine engine comprising: a first ring; a second ring; a first duct liner having a first end and a second end, the first duct liner mounted proximate the first end of the first duct liner to the first ring; a second duct liner having a first end and a second end, the second duct liner mounted proximate the second end of the second duct liner to the second ring; and a coupling assembly comprising: a threaded insert operatively coupled to a wall defining an aperture through the second duct liner; a retaining bracket having a mating segment and a retaining segment, wherein a hole extends through the mating segment, the second end of the first duct liner disposed between the retaining segment and the second duct liner; and a threaded fastener extending through the hole of the retaining bracket and in threaded engagement with the threaded insert to couple the retaining bracket to the second duct liner. a first ring; a second ring; a first duct liner having a first end and a second end, the first duct liner mounted proximate the first end of the first duct liner to the first ring; a second duct liner having a first end and a second end, the second duct liner mounted proximate the second end of the second duct liner to the second ring; and a coupling assembly comprising: a threaded insert operatively coupled to a wall defining an aperture through the second duct liner; a retaining bracket having a mating segment and a retaining segment, wherein a hole extends through the mating segment, the second end of the first duct liner disposed between the retaining segment and the second duct liner; and a threaded fastener extending through the hole of the retaining bracket and in threaded engagement with the threaded insert to couple the retaining bracket to the second duct liner. a threaded insert operatively coupled to a wall defining an aperture through the second duct liner; a retaining bracket having a mating segment and a retaining segment, wherein a hole extends through the mating segment, the second end of the first duct liner disposed between the retaining segment and the second duct liner; and a threaded fastener extending through the hole of the retaining bracket and in threaded engagement with the threaded insert to couple the retaining bracket to the second duct liner.
A protein selected from a group consisting of amino acid sequences of the following SEQ ID Nos. 1 to 4, or a gene encoding the same for use in the prevention or the treatment of a muscle disease: a Slit3 protein consisting of an amino acid sequence of SEQ ID No. 1; a Robo1 protein consisting of an amino acid sequence of SEQ ID No. 2; a Robo2 protein consisting of an amino acid sequence of SEQ ID No. 3; and a LRRD2 protein consisting of an amino acid sequence of SEQ ID No. 4. a Slit3 protein consisting of an amino acid sequence of SEQ ID No. 1; a Robo1 protein consisting of an amino acid sequence of SEQ ID No. 2; a Robo2 protein consisting of an amino acid sequence of SEQ ID No. 3; and a LRRD2 protein consisting of an amino acid sequence of SEQ ID No. 4.
A kit for determining the receptivity status of an endometrium comprising means for quantifying the expression of the following genes: AREG, ATP5B, CAPN6, CIR1, CMTM5, CTNNA2, CXCL6, FOXP3, HBA1, HBG1, HMBS, HOXB7, IL1R1, IL4, IL5, ITGB1, MAPK1, NFKBIA, PGRMC1, PLA2G4A, RHOA, SDHA, SERPIN1, wherein said kit comprises means for quantifying the expression of up to 100 genes, preferably up to 48 genes.
A computer-implemented method for processing object designs in engineering by generating a set of shape descriptors { F s, s = 1,..., N s} for a set of two or three dimensional geometric shapes, comprising the following steps: - reading a set { R n} of N feature locations, wherein R n is the position vector of a feature location having the length R n = | R n | and n = 1,..., N; - reading a set { k m} of M wave numbers, wherein m = 1,..., M; - reading γ ∈, which is a parameter controlling a degree of locality of the features; - for each shape s calculating for each of the N feature locations R n and M wave numbers k m a feature descriptor f s ( n, m) according to the rule f s n m = ‖ R → n ‖ α γ e − ik m R n ∫ shape s d 3 s → e ik m s → − R → n ‖ s → − R → n ‖ α γ wherein the integral is summing all contributions from each point of the shape s, s is a position vector of points of the shape, i is the imaginary unit, ‖ x → ‖ α = ∑ i x i α 1 / α is the L α norm of the vector x, and C is a normalization constant which can be chosen either C = 1 or to normalize the feature to the absolute volume or surface area of the shape: C = 1/∫ shape s d 3 s.; - assigning the calculated feature descriptors f s ( n,m) to an M · N dimensional vector of features as the shape descriptor F s according to F → s = f s n = 1, m = 1, f s n = 1, m = 2,..., f s n = N, m = M T and - outputting the set of shape descriptors { F s, s = 1,..., N s} for further processing. - reading a set { R n} of N feature locations, wherein R n is the position vector of a feature location having the length R n = | R n | and n = 1,..., N; - reading a set { k m} of M wave numbers, wherein m = 1,..., M; - reading γ ∈, which is a parameter controlling a degree of locality of the features; - for each shape s calculating for each of the N feature locations R n and M wave numbers k m a feature descriptor f s ( n, m) according to the rule f s n m = ‖ R → n ‖ α γ e − ik m R n ∫ shape s d 3 s → e ik m s → − R → n ‖ s → − R → n ‖ α γ wherein the integral is summing all contributions from each point of the shape s, s is a position vector of points of the shape, i is the imaginary unit, ‖ x → ‖ α = ∑ i x i α 1 / α is the L α norm of the vector x, and C is a normalization constant which can be chosen either C = 1 or to normalize the feature to the absolute volume or surface area of the shape: C = 1/∫ shape s d 3 s.; s is a position vector of points of the shape, i is the imaginary unit, ‖ x → ‖ α = ∑ i x i α 1 / α is the L α norm of the vector x, and C is a normalization constant which can be chosen either C = 1 or to normalize the feature to the absolute volume or surface area of the shape: C = 1/∫ shape s d 3 s.; - assigning the calculated feature descriptors f s ( n,m) to an M · N dimensional vector of features as the shape descriptor F s according to F → s = f s n = 1, m = 1, f s n = 1, m = 2,..., f s n = N, m = M T and - outputting the set of shape descriptors { F s, s = 1,..., N s} for further processing.