mhurhangee/ep-ind-claims huggingface dataset:
A method for audio object extraction from audio content, the audio content being of a format based on a plurality of channels, the method comprising: applying audio object extraction on individual frames of the audio content at least partially based on frequency spectral similarities among the plurality of channels; and performing audio object composition across the frames of the audio content, based on the audio object extraction on the individual frames, to generate a track of at least one audio object, wherein the frequency spectral similarities among the plurality of channels are determined based on at least one of: similarities of frequency spectral envelops of the plurality of channels; and similarities of frequency spectral shapes of the plurality of channels. applying audio object extraction on individual frames of the audio content at least partially based on frequency spectral similarities among the plurality of channels; and performing audio object composition across the frames of the audio content, based on the audio object extraction on the individual frames, to generate a track of at least one audio object, wherein the frequency spectral similarities among the plurality of channels are determined based on at least one of: similarities of frequency spectral envelops of the plurality of channels; and similarities of frequency spectral shapes of the plurality of channels. similarities of frequency spectral envelops of the plurality of channels; and similarities of frequency spectral shapes of the plurality of channels.
Guide having passive gravity compensation by means of a magnet arrangement (M1, M2, M3), for guiding a first body relative to a second body in a vertical direction, wherein - a spring guide permits movements between the first and second bodies (K1, K2) in the vertical direction and blocks movements in other directions, - the first body is connected to a first magnet and the second body is connected to a second magnet or vice versa, - the second magnet has an opening, in which the first magnet is at least partly arranged, so that, between the first and second magnets (M1, M2), which are each magnetized parallel to the vertical direction but oppositely, there acts a repellent force which counteracts the gravity of the first body, - a positive stiffness of the spring guide is at least partly compensated for by a negative stiffness of the magnetic spring formed by the first and second magnets (M1, M2), - the first and second magnets (M1, M2) are shaped such that a horizontal distance (d) between the first and second magnets (M1, M2) in the interior of the opening in the second magnet varies in the vertical direction. - a spring guide permits movements between the first and second bodies (K1, K2) in the vertical direction and blocks movements in other directions, - the first body is connected to a first magnet and the second body is connected to a second magnet or vice versa, - the second magnet has an opening, in which the first magnet is at least partly arranged, so that, between the first and second magnets (M1, M2), which are each magnetized parallel to the vertical direction but oppositely, there acts a repellent force which counteracts the gravity of the first body, - a positive stiffness of the spring guide is at least partly compensated for by a negative stiffness of the magnetic spring formed by the first and second magnets (M1, M2), - the first and second magnets (M1, M2) are shaped such that a horizontal distance (d) between the first and second magnets (M1, M2) in the interior of the opening in the second magnet varies in the vertical direction.
A curable aqueous composition comprising a (co)polymer and an epoxy crosslinker, wherein the (co)polymer comprises, as (co)polymerized units, from 0.05% to 10% by dry weight, based on total monomers of the (co)polymer, ethylenically unsaturated acidic monomers having at least two carboxylic acid groups, and the epoxy crosslinker is an aliphatic compound having at least two reactive oxirane groups; and wherein the oxirane groups are present in the epoxy crosslinker in the range of from 1% to 10% by dry weight, based on total dry weight of the (co)polymer.
A crimp body comprising: a lead wire having a plurality of core wires; and a crimp terminal comprising a holding portion including a bottom portion, a curved first side portion continuous with the bottom portion, and a curved second side portion continuous with the side of the bottom portion opposite to the first side portion, wherein the first side portion and the second side portion are curved such that a first distal end portion that is the distal end portion of the first side portion and a second distal end portion that is the distal end portion of the second side portion face the bottom portion, and the holding portion thereby surrounds and crimps the plurality of core wires with the bottom portion, the first side portion, and the second side portion, characterized in that when the holding portion is viewed in a section perpendicular to the axial direction of the core wires, in the section, horizontal direction is defined as the direction of a tangent to the curved part of the first side portion and the curved part of the second side portion, height direction is defined as the direction perpendicular to the horizontal direction, a crimp height CH that is the height from the bottom surface of the bottom portion to the tangent is 1.20 ± 0.05 mm and a crimp width CW that is the width in the horizontal direction of the holding portion is 1.66 ± 0.05 mm, and wherein in the section, a height Ha that is the distance in the height direction of the contact part (P1 to P2) between the first side portion and the second side portion is 0.15 mm or more. a lead wire having a plurality of core wires; and a crimp terminal comprising a holding portion including a bottom portion, a curved first side portion continuous with the bottom portion, and a curved second side portion continuous with the side of the bottom portion opposite to the first side portion, wherein the first side portion and the second side portion are curved such that a first distal end portion that is the distal end portion of the first side portion and a second distal end portion that is the distal end portion of the second side portion face the bottom portion, and the holding portion thereby surrounds and crimps the plurality of core wires with the bottom portion, the first side portion, and the second side portion, characterized in that when the holding portion is viewed in a section perpendicular to the axial direction of the core wires, in the section, horizontal direction is defined as the direction of a tangent to the curved part of the first side portion and the curved part of the second side portion, height direction is defined as the direction perpendicular to the horizontal direction, a crimp height CH that is the height from the bottom surface of the bottom portion to the tangent is 1.20 ± 0.05 mm and a crimp width CW that is the width in the horizontal direction of the holding portion is 1.66 ± 0.05 mm, and wherein in the section, a height Ha that is the distance in the height direction of the contact part (P1 to P2) between the first side portion and the second side portion is 0.15 mm or more.
A method of wireless communication, comprising: dividing a subframe into six partitions, the subframe for transmitting two unicast symbols and a plurality of multicast-broadcast single frequency network, MBSFN, symbols, each of the two unicast symbols and the plurality of MBSFN symbols having an associated cyclic prefix, CP; designating a first partition of the subframe for transmitting the two unicast symbols; designating a second partition through sixth partition of the subframe for respectively transmitting the plurality of MBSFN symbols; determining a length of each CP associated with the plurality of MBSFN symbols to be at least 33.33 μs; transmitting at least one unicast signal in the first partition, the at least one unicast signal including the two unicast symbols; and transmitting at least one MBSFN signal in the second partition through sixth partition, the at least one MBSFN signal including the plurality of MBSFN symbols respectively in the second partition through sixth partition, each MBSFN symbol having the associated CP with the length of at least 33.33 μs. dividing a subframe into six partitions, the subframe for transmitting two unicast symbols and a plurality of multicast-broadcast single frequency network, MBSFN, symbols, each of the two unicast symbols and the plurality of MBSFN symbols having an associated cyclic prefix, CP; designating a first partition of the subframe for transmitting the two unicast symbols; designating a second partition through sixth partition of the subframe for respectively transmitting the plurality of MBSFN symbols; determining a length of each CP associated with the plurality of MBSFN symbols to be at least 33.33 μs; transmitting at least one unicast signal in the first partition, the at least one unicast signal including the two unicast symbols; and transmitting at least one MBSFN signal in the second partition through sixth partition, the at least one MBSFN signal including the plurality of MBSFN symbols respectively in the second partition through sixth partition, each MBSFN symbol having the associated CP with the length of at least 33.33 μs.
A coiled product dispensing kit comprising: - a coil of a filamentary product; - a support device for said coil; - a payout tube configured to pass a length of said filamentary product through it, the payout tube extending through an opening formed in said support device and having an entrance end for said filamentary product inside an area surrounded by said coil, characterized in that said coiled product dispensing kit further comprises a connector assembly attached to an end of said filamentary product and the support device comprises: - a first wall (41; 45) and a second wall arranged in perpendicular planes and attached to each other to form a corner (43; 46); - a compartment formed between said corner (43; 46) and a further wall attached to both the first wall (41; 45) and the second wall, the compartment being configured to house said connector assembly. - a coil of a filamentary product; - a support device for said coil; - a payout tube configured to pass a length of said filamentary product through it, the payout tube extending through an opening formed in said support device and having an entrance end for said filamentary product inside an area surrounded by said coil, - a first wall (41; 45) and a second wall arranged in perpendicular planes and attached to each other to form a corner (43; 46); - a compartment formed between said corner (43; 46) and a further wall attached to both the first wall (41; 45) and the second wall, the compartment being configured to house said connector assembly.
A method of manufacturing semiconductor devices, the method comprising: - providing a leadframe having a die pad area, the leadframe comprising an outer layer of a first metal having a first oxidation potential, - contacting said leadframe with a solution containing a second metal having a second oxidation potential, the second oxidation potential being more negative than the first oxidation potential, - applying radiation energy to the die pad area of the leadframe contacted with said solution to locally increase the temperature of the leadframe, wherein a layer of said second metal is selectively provided at the die pad area of the leadframe by galvanic displacement reaction, - providing onto said leadframe an enhancing layer by oxidation of said outer layer of the leadframe, the enhancing layer countering device package delamination, - attaching onto said die pad area at least one semiconductor die via soft-solder die attach material, and - forming a device package by molding package material onto the at least one semiconductor die attached onto said die pad area of the leadframe. - providing a leadframe having a die pad area, the leadframe comprising an outer layer of a first metal having a first oxidation potential, - contacting said leadframe with a solution containing a second metal having a second oxidation potential, the second oxidation potential being more negative than the first oxidation potential, - applying radiation energy to the die pad area of the leadframe contacted with said solution to locally increase the temperature of the leadframe, wherein a layer of said second metal is selectively provided at the die pad area of the leadframe by galvanic displacement reaction, - providing onto said leadframe an enhancing layer by oxidation of said outer layer of the leadframe, the enhancing layer countering device package delamination, - attaching onto said die pad area at least one semiconductor die via soft-solder die attach material, and - forming a device package by molding package material onto the at least one semiconductor die attached onto said die pad area of the leadframe.
A compound including a ligand having the formula: each of R 1, R 2, and R 3 is independently a hydrogen, or a mono-, di-, tri-, tetra-, or penta- substitution of alkyl or aryl; at least one of R 1 and R 2 is a branched alkyl containing at least 4 carbon atoms, and wherein the branching occurs at a position further than the benzylic position. each of R 1, R 2, and R 3 is independently a hydrogen, or a mono-, di-, tri-, tetra-, or penta- substitution of alkyl or aryl; at least one of R 1 and R 2 is a branched alkyl containing at least 4 carbon atoms, and wherein the branching occurs at a position further than the benzylic position.
Circuitry for calculating the magnitude of a received signal from an electrode (101, 102) of a capacitive touch sensitive apparatus, the circuitry comprising: a first digital signal generating module configured to generate a first digital signal, the first digital signal representing a sinusoidal wave having a first frequency; a second digital signal generating module configured to generate a second digital signal, the second digital signal representing a sinusoidal wave having the first frequency, wherein the second digital signal is orthogonal to the first digital signal; a sensing module for coupling to an electrode array, the sensing module configured to receive the first digital signal, provide a driving signal to at least one electrode of the electrode array based on the first digital signal, and output a received digital signal, wherein the received digital signal is indicative of a capacitive coupling experienced by the at least one electrode; a first multiplier module configured to receive the first digital signal and the received digital signal and multiply the two digital signals together; a second multiplier module configured to receive the second digital signal and the received digital signal and multiply the two digital signals together; and a signal magnitude calculating module configured to calculate the magnitude of the received digital signal based on the output from the first multiplier module and the second multiplier module. a first digital signal generating module configured to generate a first digital signal, the first digital signal representing a sinusoidal wave having a first frequency; a second digital signal generating module configured to generate a second digital signal, the second digital signal representing a sinusoidal wave having the first frequency, wherein the second digital signal is orthogonal to the first digital signal; a sensing module for coupling to an electrode array, the sensing module configured to receive the first digital signal, provide a driving signal to at least one electrode of the electrode array based on the first digital signal, and output a received digital signal, wherein the received digital signal is indicative of a capacitive coupling experienced by the at least one electrode; a first multiplier module configured to receive the first digital signal and the received digital signal and multiply the two digital signals together; a second multiplier module configured to receive the second digital signal and the received digital signal and multiply the two digital signals together; and a signal magnitude calculating module configured to calculate the magnitude of the received digital signal based on the output from the first multiplier module and the second multiplier module.
A method for mitigating interference between radio access technology, RAT, components in a wireless device, the method comprising: detecting an interference situation between a first RAT component and a second RAT component in the wireless device; sending a notification of the detected interference situation to a network, wherein the notification comprises information for assisting with the detected interference situation, and wherein the information comprises at least one of the following: a list of frequencies affected by the interference situation between the first RAT component and the second RAT component or information associated with time division multiplexing, TDM, in the wireless device; receiving, from the network, an action or an indication thereof to be performed by the wireless device in response to the notification and detected interference situation between the first RAT and second RAT components in the wireless device, wherein the action comprises at least one of the following: a frequency division multiplexing, FDM, operation or a TDM operation; and performing the action to mitigate the detected interference situation. detecting an interference situation between a first RAT component and a second RAT component in the wireless device; sending a notification of the detected interference situation to a network, wherein the notification comprises information for assisting with the detected interference situation, and wherein the information comprises at least one of the following: a list of frequencies affected by the interference situation between the first RAT component and the second RAT component or information associated with time division multiplexing, TDM, in the wireless device; receiving, from the network, an action or an indication thereof to be performed by the wireless device in response to the notification and detected interference situation between the first RAT and second RAT components in the wireless device, wherein the action comprises at least one of the following: a frequency division multiplexing, FDM, operation or a TDM operation; and performing the action to mitigate the detected interference situation.
Antenna device (201'''', 201''''') for a multiple-input multiple-output fill level radar device, which operates according to the frequency-modulated continuous-wave principle and a time division multiplexing method, comprising: a signal source with a phase-locked loop configured to generate a transmit signal with a basic frequency; a control device with a switching device (507, 507', 604, 605a, 605b, 702); a plurality of transmit channels, wherein a first transmit channel (202a, 207a), comprises: a first frequency conversion device (501a, 501b); and a first transmit device (504a'''', 504b'''', 504a''''', 504b''''') with a first frequency pass band; a plurality of receive channels (205, 205a, 205b); wherein each receive channel comprises a receive frequency conversion device ((501a', 501b'), and wherein each transmit channel comprises a frequency conversion device; wherein the signal source is connected to the frequency conversion device of each transmit channel and the receive frequency conversion device ((501a', 501b') of each receive channel; wherein the switching device (507, 507', 604, 605a, 605b, 702) is connected to the first frequency conversion device (501a, 501b), for the time-controlled switching on and off of the frequency conversion device and the time-controlled conversion of the basic frequency of the transmit signal to a first transmit frequency, which lies in the first frequency pass band of the first transmit device (504a'''', 504b'''', 504a''''', 504b'''''), in order to provide via the first transmit channel (202a, 202b, 207a, 207b) a first transmit signal with the first transmit frequency; and CGS:ag wherein the conversion of the basic frequency of the transmit signal to the first transmit frequency, which lies in the first frequency pass band, is carried out according to a specifiable first time schedule (t1, t2) according to a time-division multiplexing method; wherein the antenna device (201'''', 201''''') is configured to, by evaluating the signals of the individual receive channels (205, 205a, 205b) that always receive signals when at least one transmit channel is switched on to calculate a surface profile of a bulk material. a signal source with a phase-locked loop configured to generate a transmit signal with a basic frequency; a control device with a switching device (507, 507', 604, 605a, 605b, 702); a plurality of transmit channels, wherein a first transmit channel (202a, 207a), comprises: a first frequency conversion device (501a, 501b); and a first transmit device (504a'''', 504b'''', 504a''''', 504b''''') with a first frequency pass band; a first frequency conversion device (501a, 501b); and a first transmit device (504a'''', 504b'''', 504a''''', 504b''''') with a first frequency pass band;
A method for code block division, comprising: determining a reference information block length of a code block according to an obtained division related parameter, wherein the obtained division related parameter comprises at least one of: a physical channel resource parameter and a spectral efficiency parameter; determining a maximum information block length according to the reference information block length and a hardware parameter, wherein the hardware parameter comprises at least one of: a User Equipment, UE, Category parameter which is able to indicate a buffer size of a terminal, a maximum information block length supported by an encoder, and a set of information block lengths supported by the encoder; and dividing a Transport Block, TB, having a length greater than the maximum information block length into two or more code blocks according to the obtained division related parameter, the hardware parameter and the determined maximum information block length; wherein an information length after code block division is less than the determined maximum information block length, and wherein the obtained division related parameter comprises the physical channel resource parameter, which at least includes a number N tb of Orthogonal Frequency Division Multiplexing, OFDM, symbols occupied by the TB in a time domain and a maximum number N cb of OFDM symbols allowed to be occupied by each code block in the time domain. determining a reference information block length of a code block according to an obtained division related parameter, wherein the obtained division related parameter comprises at least one of: a physical channel resource parameter and a spectral efficiency parameter; determining a maximum information block length according to the reference information block length and a hardware parameter, wherein the hardware parameter comprises at least one of: a User Equipment, UE, Category parameter which is able to indicate a buffer size of a terminal, a maximum information block length supported by an encoder, and a set of information block lengths supported by the encoder; and dividing a Transport Block, TB, having a length greater than the maximum information block length into two or more code blocks according to the obtained division related parameter, the hardware parameter and the determined maximum information block length; wherein an information length after code block division is less than the determined maximum information block length, and wherein the obtained division related parameter comprises the physical channel resource parameter, which at least includes a number N tb of Orthogonal Frequency Division Multiplexing, OFDM, symbols occupied by the TB in a time domain and a maximum number N cb of OFDM symbols allowed to be occupied by each code block in the time domain.