mhurhangee/ep-ind-claims huggingface dataset:
A method for scene change detection in media data, comprising: determining one or more statistical patterns of media features in a plurality of time-wise intervals around a plurality of seed time points of the media data using one or more types of features extractable from the media data, at least one of the one or more types of features comprising a type of features that captures structural properties, tonality including harmony and melody, timbre, rhythm, loudness, stereo mix, or a quantity of sound sources as related to the media data; detecting, based on the one or more statistical patterns, a plurality of beginning scene change points and a plurality of ending scene change points in the media data for the plurality of seed time points in the media data; determining, based on one or more pairs of scene change points a plurality of candidate representative segments in the media data, wherein each individual pair in the one or more pairs is formed by: an individual beginning scene change point in the plurality of beginning scene change points being located prior to a specific seed time point, and an individual ending scene change point in the plurality of ending scene change points being located after the same specific seed time point. wherein the method is performed by one or more computing devices. determining one or more statistical patterns of media features in a plurality of time-wise intervals around a plurality of seed time points of the media data using one or more types of features extractable from the media data, at least one of the one or more types of features comprising a type of features that captures structural properties, tonality including harmony and melody, timbre, rhythm, loudness, stereo mix, or a quantity of sound sources as related to the media data; detecting, based on the one or more statistical patterns, a plurality of beginning scene change points and a plurality of ending scene change points in the media data for the plurality of seed time points in the media data; determining, based on one or more pairs of scene change points a plurality of candidate representative segments in the media data, wherein each individual pair in the one or more pairs is formed by: an individual beginning scene change point in the plurality of beginning scene change points being located prior to a specific seed time point, and an individual ending scene change point in the plurality of ending scene change points being located after the same specific seed time point. an individual beginning scene change point in the plurality of beginning scene change points being located prior to a specific seed time point, and an individual ending scene change point in the plurality of ending scene change points being located after the same specific seed time point. wherein the method is performed by one or more computing devices.
A method performed by a base station, the method comprising: transmitting to a User Equipment, UE, using Radio Resource Control, RRC, signalling, a parameter corresponding to a first type of Physical Uplink Control Channel, PUCCH; and receiving from the UE, the first type of PUCCH with a first sequence, wherein the first sequence is defined by e jαn R(n), 0 ≦ n ≦ 11, R(n) is a base sequence, and α is defined by an equation α=2πk/12, 0≦k≦11, a value of k corresponding to a two bit-pair of values of Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information bits, each bit of the HARQ-ACK information bits being: 0 representing a negative acknowledgement, NACK; or 1 representing a positive acknowledgement, ACK. transmitting to a User Equipment, UE, using Radio Resource Control, RRC, signalling, a parameter corresponding to a first type of Physical Uplink Control Channel, PUCCH; and receiving from the UE, the first type of PUCCH with a first sequence, wherein the first sequence is defined by e jαn R(n), 0 ≦ n ≦ 11, R(n) is a base sequence, and α is defined by an equation α=2πk/12, 0≦k≦11, a value of k corresponding to a two bit-pair of values of Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information bits, each bit of the HARQ-ACK information bits being: 0 representing a negative acknowledgement, NACK; or 1 representing a positive acknowledgement, ACK. the first sequence is defined by e jαn R(n), 0 ≦ n ≦ 11, R(n) is a base sequence, and α is defined by an equation α=2πk/12, 0≦k≦11, a value of k corresponding to a two bit-pair of values of Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information bits, each bit of the HARQ-ACK information bits being: 0 representing a negative acknowledgement, NACK; or 1 representing a positive acknowledgement, ACK. a value of k corresponding to a two bit-pair of values of Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information bits, each bit of the HARQ-ACK information bits being: 0 representing a negative acknowledgement, NACK; or 1 representing a positive acknowledgement, ACK.
An aerosol-generating article for producing an inhalable aerosol upon heating, the aerosol-generating article comprising a plurality of components including an aerosol-forming substrate, wherein: the aerosol-forming substrate is in the form of a hollow tubular segment defining a substrate cavity extending between an upstream end of the aerosol-forming substrate and a downstream end of the aerosol-forming substrate, the aerosol-forming substrate comprises a plurality of thermally conductive particles and an aerosol-former, each of the plurality of thermally conductive particles has a thermal conductivity greater than 0.3 W/(mK) in at least one direction at 25 degrees Celsius, and the substrate is in the form of a tube having an outer diameter and an inner diameter, the inner diameter being between 2.5 mm and 19 mm. the aerosol-forming substrate is in the form of a hollow tubular segment defining a substrate cavity extending between an upstream end of the aerosol-forming substrate and a downstream end of the aerosol-forming substrate, the aerosol-forming substrate comprises a plurality of thermally conductive particles and an aerosol-former, each of the plurality of thermally conductive particles has a thermal conductivity greater than 0.3 W/(mK) in at least one direction at 25 degrees Celsius, and the substrate is in the form of a tube having an outer diameter and an inner diameter, the inner diameter being between 2.5 mm and 19 mm.
An apparatus for transporting containers in a system for production of packaged food products, said apparatus comprising: a transportation track, and a plurality of carriers for arrangement on the transportation track, the respective carrier comprising a support surface which is configured to carry one or more of the containers, wherein the transportation track comprises a first magnetic arrangement (22, 23), and the respective carrier comprises a second magnetic arrangement, said apparatus further comprising a control device which is configured to operate one of the first and second magnetic arrangements (22, 23; 24) to generate a movement of the respective carrier in a feed direction on the transportation track, wherein the transportation track is arranged to extend adjacent to a conveyor (300A, 300B) at a diversion location (50A, 50B) along the transportation track, wherein the control device is further configured to, when a selected carrier among the carriers is located at the diversion location (50A, 50B), intermittently tilt the support surface of the selected carrier to slide the one or more containers along the support surface onto the conveyor (300A, 300B), characterized in that said apparatus further comprises a guiding element which is located above the transportation track at the diversion location (50A, 50B) to guide the one or more containers along the support surface onto the conveyor (300A, 300B). a transportation track, and a plurality of carriers for arrangement on the transportation track, the respective carrier comprising a support surface which is configured to carry one or more of the containers, wherein the transportation track comprises a first magnetic arrangement (22, 23), and the respective carrier comprises a second magnetic arrangement, said apparatus further comprising a control device which is configured to operate one of the first and second magnetic arrangements (22, 23; 24) to generate a movement of the respective carrier in a feed direction on the transportation track, wherein the transportation track is arranged to extend adjacent to a conveyor (300A, 300B) at a diversion location (50A, 50B) along the transportation track, wherein the control device is further configured to, when a selected carrier among the carriers is located at the diversion location (50A, 50B), intermittently tilt the support surface of the selected carrier to slide the one or more containers along the support surface onto the conveyor (300A, 300B), characterized in that said apparatus further comprises a guiding element which is located above the transportation track at the diversion location (50A, 50B) to guide the one or more containers along the support surface onto the conveyor (300A, 300B).
A method for interleaving symbols coded by a turbo encoder in a communication system that uses the turbo encoder for encoding at least one parity symbol pair and the coded symbols, the method comprising the step of: interleaving by cyclic-shifting the coded symbols using an equation of floor {c/D} mod R wherein the coded symbols represents a matrix, a size of the matrix has R columns and C rows, c denotes a column index, mod denotes a modulo operation, and D is a variable value determining a pattern of cyclic-shifting, D is set to one of 1, 2, 3, 4. interleaving by cyclic-shifting the coded symbols using an equation of floor {c/D} mod R wherein the coded symbols represents a matrix, a size of the matrix has R columns and C rows, c denotes a column index, mod denotes a modulo operation, and D is a variable value determining a pattern of cyclic-shifting, D is set to one of 1, 2, 3, 4.
A filter assembly for filtering particles from a liquid which comprises: a housing (12, 12') having an inlet (13, 13') for introduction of a liquid to be filtered and an outlet (14, 14') for filtered liquid, said outlet being spaced from said inlet, depth filter media (16, 16') in said housing; a head space (15, 15') in said housing and upstream of said depth filter media in the direction of fluid flow during filtration, characterized in that the volume of said head space is from 4 to 14 liters per meter squared of depth filter media area in said housing. a housing (12, 12') having an inlet (13, 13') for introduction of a liquid to be filtered and an outlet (14, 14') for filtered liquid, said outlet being spaced from said inlet, depth filter media (16, 16') in said housing; a head space (15, 15') in said housing and upstream of said depth filter media in the direction of fluid flow during filtration, characterized in that the volume of said head space is from 4 to 14 liters per meter squared of depth filter media area in said housing.
A reagent for measuring a total amount of hemoglobin, wherein the total amount of hemoglobin is the total amount of a hemoglobin-haptoglobin complex and a free hemoglobin, comprising: an insoluble carrier particle immobilizing an anti-hemoglobin antibody; and an insoluble carrier particle immobilizing an anti-haptoglobin antibody. an insoluble carrier particle immobilizing an anti-hemoglobin antibody; and an insoluble carrier particle immobilizing an anti-haptoglobin antibody.
A seat ring for a butterfly valve, the butterfly valve comprising a valve disc substantially of a disc-like shape, where the seat ring includes a sealing projection continuously protruding inwardly in the circumferential direction between a pair of bosses, the bosses are positioned radially outwardly of a flow passage direction, where the sealing projection constitutes curved swelling surfaces consisting of a contact surface and an adjacent semi-elliptic surface, wherein the semi-elliptic surface is formed parallel to the flow passage direction with its smallest inner diameter smaller than that of the valve disc, and the contact surface is formed as a tapered surface; wherein a semi-elliptic first contact/closure curve of the contact surface forms a line inclined towards valve disc opening direction at the central portion between the bosses, wherein the connection of the contact surface and of the adjacent semi-elliptic surface is a semi-elliptic edge displaced by offset "h" from plane defined by vertical valve centerline and transversal valve centerline in the valve closing direction, characterized by that the sealing projection has variable cross section shape, wherein the contact surface is formed as tapered surface with a slant varying in the circumferential direction in such a manner that the slant is steep in the vicinity of the bosses and gentle in the central portion between the bosses, where said slant is extending from the semi-elliptic first contact/closure curve to the semi-elliptic edge.
A wireless receiver circuit comprising: a wireless receiver unit having a power supply at a drive voltage and configured to receive a plurality of digital samples and to provide an output as a stream of digital output bits; a forward error correction decoder at the output of the wireless receiver unit; a forward error correction encoder at the output of the forward error correction decoder for re-encoding the output of the forward error correction decoder; a Hamming distance unit configured to output a value of the Hamming distance between the received encoded signal at the output of the wireless receiver unit and the re-encoded signal at the output of the forward error correction encoder; a control unit configured to derive a control output from the difference between the measured Hamming distance and a target Hamming distance; and a voltage regulator for providing the drive voltage to the wireless receiver unit, based on the control unit output according to the expression V new = V old +(H-H target)*K j, where H target is a value representing the target Hamming distance corresponding to a target bit error rate, BER, H is the measured Hamming distance and K j is an integral gain parameter of the control unit; wherein the voltage controlled according to said expression represents a voltage overscaling function for the wireless receiver unit. a wireless receiver unit having a power supply at a drive voltage and configured to receive a plurality of digital samples and to provide an output as a stream of digital output bits; a forward error correction decoder at the output of the wireless receiver unit; a forward error correction encoder at the output of the forward error correction decoder for re-encoding the output of the forward error correction decoder; a Hamming distance unit configured to output a value of the Hamming distance between the received encoded signal at the output of the wireless receiver unit and the re-encoded signal at the output of the forward error correction encoder; a control unit configured to derive a control output from the difference between the measured Hamming distance and a target Hamming distance; and a voltage regulator for providing the drive voltage to the wireless receiver unit, based on the control unit output according to the expression V new = V old +(H-H target)*K j, where H target is a value representing the target Hamming distance corresponding to a target bit error rate, BER, H is the measured Hamming distance and K j is an integral gain parameter of the control unit;
A device for handling at least one hose in a fuel dispensing unit, the device allowing the hose to be pulled out from a hose storage space and return the hose to the hose storage space, the device comprising a cable element connected to a motor for feeding and retracting the cable element, wherein when the cable element is being retracted, the hose will be returned to the hose storage space, wherein when the cable element is being fed, the hose will be allowed to be pulled out from the hose storage space, characterized by: a device for measuring a tension of the cable element, and a control unit for controlling the motor based on input from the device for measuring the tension of the cable element, wherein the control unit is adapted to stop the motor from feeding the cable element when the tension of the cable element is below a first threshold. a device for measuring a tension of the cable element, and a control unit for controlling the motor based on input from the device for measuring the tension of the cable element, wherein the control unit is adapted to stop the motor from feeding the cable element when the tension of the cable element is below a first threshold.
A method of communicating between a first communication node at a first site and a second communication node at a second site, comprising - sending, by the first node, a message comprising operational data over a communication channel to the second node, and monitoring a channel quality of the communication channel based on the message, characterized in that the method comprises - sending, by the first node and continually at regular intervals separated by idle periods with no sending activity, data packets (50, 50', 50") comprising operational data over a non-deterministic communication channel comprising a packet-switched network to the second node, and - monitoring, by the second node and based on said data packets (50, 50', 50"), the channel quality. - sending, by the first node, a message comprising operational data over a communication channel to the second node, and monitoring a channel quality of the communication channel based on the message, - sending, by the first node and continually at regular intervals separated by idle periods with no sending activity, data packets (50, 50', 50") comprising operational data over a non-deterministic communication channel comprising a packet-switched network to the second node, and - monitoring, by the second node and based on said data packets (50, 50', 50"), the channel quality.
A hetero-junction semiconductor photocathode comprising: a hetero-junction between a p-type optical window layer and a p-type optical absorber layer in which said hetero-junction has a conduction band barrier in excess of 3 kT: an n-type optical window layer overlying the p-type optical window layer; said hetero-junction is created between said p-type optical window layer and said p-type optical absorber layer, the interface of the n-type optical window layer and the p-type optical window layer forming a rectifying junction to remove said barrier; electrical connections to said photocathode to create an electric field across said hetero-junction to remove said barrier; wherein the p-type optical absorber layer comprises a first optical absorber layer which is lightly doped and a second optical absorber layer which is heavily doped. an n-type optical window layer overlying the p-type optical window layer; said hetero-junction is created between said p-type optical window layer and said p-type optical absorber layer, the interface of the n-type optical window layer and the p-type optical window layer forming a rectifying junction to remove said barrier; electrical connections to said photocathode to create an electric field across said hetero-junction to remove said barrier; wherein the p-type optical absorber layer comprises a first optical absorber layer which is lightly doped and a second optical absorber layer which is heavily doped.
Device (1, 13, 16, 19, 24) for detecting mechanical vibrations of measurement objects, able to be attached to measurement objects for this purpose, having a housing, at least one vibration detection element (3, 15, 18, 21) and at least two current sources (4, 14, 17, 20, 25), wherein the vibration detection element (3, 15, 18, 21) and the current sources (4, 14, 17, 20, 25) are arranged inside the housing, characterized in that the current sources (4, 14, 17, 20, 25) are arranged along at least one circle (22, 23) around the vibration detection element (3, 15, 18, 21), and angular spacings between adjacent current sources (4, 14, 17, 20, 25) on the same circle (22, 23) are each identical, and also in that each of the current sources at least partially or sectionally overlaps the vibration detection element in normal directions to the longitudinal axis of the vibration detection element. a housing, at least one vibration detection element (3, 15, 18, 21) and at least two current sources (4, 14, 17, 20, 25), wherein the vibration detection element (3, 15, 18, 21) and the current sources (4, 14, 17, 20, 25) are arranged inside the housing, characterized in that the current sources (4, 14, 17, 20, 25) are arranged along at least one circle (22, 23) around the vibration detection element (3, 15, 18, 21), and angular spacings between adjacent current sources (4, 14, 17, 20, 25) on the same circle (22, 23) are each identical, and also in that each of the current sources at least partially or sectionally overlaps the vibration detection element in normal directions to the longitudinal axis of the vibration detection element.
Refrigeration cycle device with a refrigeration circuit K, with refrigerant flowing through it, made of at least one compressor, a condenser, an expansion means and at least one evaporator and a circuit for cooling a water-based coolant or coolant mixture thermally coupled with the refrigerant circuit K, whereby the evaporator and/or the condenser is provided with at least one refrigerant channel and at least one coolant channel running parallel to it, characterised in that the refrigerant is CO 2, that the evaporator and/or the condenser are/is a coupled pipe-in-pipe system with an inner pipe and an outer pipe surrounding it outside, whereby a narrow circular gap is formed between the inner pipe and the outer pipe in relation to the diameters of the inner pipe and the outer pipe, that the specific volume of the refrigerant is matched to the size of the circular gap and that a narrow circular gap of less than 10% of the diameter D 1 of the inner pipe is provided between the inner pipe and the outer pipe.
Landing gear bay comprising a bottom wall having a rear edge (46.1), a front edge (46.2) parallel to the rear edge (46.1) and at right angles to a vertical median plane and first and second lateral edges (50.1, 50.2) parallel to the vertical median plane, the bottom wall comprising longitudinal beams (52.1 to 52.8) linking the rear and front edges (46.1, 46.2), parallel to the vertical medial plane, and at least one panel (60, 60, 60") forming an airtight barrier between first and second zones (Z1, Z2) disposed on either side of the panel (60, 60', 60"), said panel (60, 60', 60") having first and second longitudinal edges (60.1, 60.2) each linked to one of the longitudinal beams (52.1 to 52.8), the second zone being able to sustain a pressure greater than that of the first zone; characterized in that the panel (60, 60', 60") has a profile that is substantially constant in the longitudinal direction and comprises, at least in the absence of a pressure difference between the first and second zones (Z1 and Z2), at least one central part offset toward the second zone with respect to its first and second longitudinal edges (60.1, 60.2) such that the loads applied to the panel (60,' 60', 60"), because of the pressure difference between the first and second zones (Z1, Z2), induce stresses on the longitudinal beams (52.1 to 52.8) comprising a horizontal component at the first and second longitudinal edges (60.1, 60.2).