mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving audio signals into which an utterance is encoded; obtaining location indicia for an area (120, 122) within a building where the utterance was spoken; determining a set of likelihoods based on the location indicia, each likelihood in the set corresponding to a likelihood that the utterance was spoken in a particular area (120, 122) of the building from a plurality of candidate areas (120,122) of the building; selecting a plurality of selected areas (120, 122) of the building from the plurality of candidate areas (120,122) of the building based on the set of likelihoods; accessing, for each selected area (120, 122) of the building, a model (208, 210, 212, 214,142a-d) for speech recognition associated with the respective selected area (120,122) of the building; generating a composite model (132, 138, 220, 320) by weighting the accessed models (222, 322) for speech recognition with the likelihoods associated with the corresponding selected areas (120, 122) of the building; and generating a transcription of the utterance using the composite model (132, 138, 220, 320). receiving audio signals into which an utterance is encoded; obtaining location indicia for an area (120, 122) within a building where the utterance was spoken; determining a set of likelihoods based on the location indicia, each likelihood in the set corresponding to a likelihood that the utterance was spoken in a particular area (120, 122) of the building from a plurality of candidate areas (120,122) of the building; selecting a plurality of selected areas (120, 122) of the building from the plurality of candidate areas (120,122) of the building based on the set of likelihoods; accessing, for each selected area (120, 122) of the building, a model (208, 210, 212, 214,142a-d) for speech recognition associated with the respective selected area (120,122) of the building; generating a composite model (132, 138, 220, 320) by weighting the accessed models (222, 322) for speech recognition with the likelihoods associated with the corresponding selected areas (120, 122) of the building; and generating a transcription of the utterance using the composite model (132, 138, 220, 320).
A computerised machine control system for controlling a machine, the machine control system comprising: a communications module for communicating with applications of a higher-level control or operating system; a machine-specific component which is independent of the applications of the higher-level control or operating system, and which comprises a machine-specific domain model with data points of the machine and a control module which is configured to access the data points of the machine via a machine-specific communications protocol and to update corresponding data-point objects in the machine-specific domain model or data points in the machine; and a machine-independent application-specific component which comprises an application-specific domain model with data objects which are accessible for the control or operating system and a mapping module, which is configured to access the machine-specific domain model and to map the data objects to data-point objects or data-point objects to data objects. a communications module for communicating with applications of a higher-level control or operating system; a machine-specific component which is independent of the applications of the higher-level control or operating system, and which comprises a machine-specific domain model with data points of the machine and a control module which is configured to access the data points of the machine via a machine-specific communications protocol and to update corresponding data-point objects in the machine-specific domain model or data points in the machine; and a machine-independent application-specific component which comprises an application-specific domain model with data objects which are accessible for the control or operating system and a mapping module, which is configured to access the machine-specific domain model and to map the data objects to data-point objects or data-point objects to data objects.
A method of repairing a surface of a component within a gas turbine engine, comprising: installing a first bladder within the gas turbine engine; installing a second bladder within the gas turbine engine; inflating the first bladder and the second bladder with an inflating fluid to form a first circumferential seal and a second circumferential seal to define an isolated area within the gas turbine engine; coating all surfaces within the isolated area with a masking layer; removing at least a portion of the masking layer to expose a working area; and forming a coating on the working area. installing a first bladder within the gas turbine engine; installing a second bladder within the gas turbine engine; inflating the first bladder and the second bladder with an inflating fluid to form a first circumferential seal and a second circumferential seal to define an isolated area within the gas turbine engine; coating all surfaces within the isolated area with a masking layer; removing at least a portion of the masking layer to expose a working area; and forming a coating on the working area.
Use of a polymer in a luminescent component whereby • said polymer is selected from the group of crosslinked polymers with Tg > 115°C and • said luminescent component comprises luminescent crystals of the perovskite crystal structure embedded in a polymer with Tg < 95°C; whereby each Tg is measured according to DIN EN ISO 11357-2:2014-07 during the second heating cycle and applying a heating rate of 20K/min, starting at -90°C up to 250°C. • said polymer is selected from the group of crosslinked polymers with Tg > 115°C and • said luminescent component comprises luminescent crystals of the perovskite crystal structure embedded in a polymer with Tg < 95°C;
A method for resource configuration, comprising: acquiring, by a terminal, configuration information of a semi-persistent resource sent by a network side entity through a radio resource control, RRC, signaling, wherein the configuration information is used for indicating the following information: time offset position information of a retransmission resource relative to an initial transmission resource, and time information of the initial transmission resource; wherein acquiring, by the terminal, the configuration information of the semi-persistent resource sent by the network side entity through the radio resource control, RRC, signaling further comprises: acquiring, by the terminal, second configuration information of the semi-persistent resource sent by the network side entity through the RRC signaling, the second configuration information acquired under a second radio access type, RAT, sent by the network side entity through the RRC signaling under a first RAT, wherein the second configuration information comprises first time information of the initial transmission resource and third time information of the retransmission resource, and the third time information comprises first time offset position information of the retransmission resource relative to the initial transmission resource; and transmitting, by the terminal, data using the semi-persistent resource based on the configuration information; wherein the first RAT is long term evolution, LTE, and the second RAT is new radio, NR. acquiring, by a terminal, configuration information of a semi-persistent resource sent by a network side entity through a radio resource control, RRC, signaling, wherein the configuration information is used for indicating the following information: time offset position information of a retransmission resource relative to an initial transmission resource, and time information of the initial transmission resource; wherein acquiring, by the terminal, the configuration information of the semi-persistent resource sent by the network side entity through the radio resource control, RRC, signaling further comprises: acquiring, by the terminal, second configuration information of the semi-persistent resource sent by the network side entity through the RRC signaling, the second configuration information acquired under a second radio access type, RAT, sent by the network side entity through the RRC signaling under a first RAT, wherein the second configuration information comprises first time information of the initial transmission resource and third time information of the retransmission resource, and the third time information comprises first time offset position information of the retransmission resource relative to the initial transmission resource; and transmitting, by the terminal, data using the semi-persistent resource based on the configuration information; wherein the first RAT is long term evolution, LTE, and the second RAT is new radio, NR.
A method for clustering, implemented on a device, the method comprising: iteratively merging classes according to inter-class Rank-Order distances; obtaining an intra-class convergence degree corresponding to each class after the iterative merge, said intra-class convergence degree being either the average of all the inter-object distances within the class or the normalized average of all the inter-object distances within the class; for each class obtained by the iterative merge, removing objects that do not have an inter-object distance, with any other object within the same class, less than the intra-class convergence degree from objects within the class that do have an inter-object distance, with another object within the same class, less than the intra-class convergence degree, grouping together into a new class the objects within the class that have inter-object distances with one another that are less than the intra-class convergence degree, and updating the number of classes; and if the number of classes after an update is less than the number of classes before the update, returning to the step of performing the iterative merge on the classes according to inter-class Rank-Order distances, until the numbers of classes is the same before and after an update, whereupon the classes after the update constitute a clustering result. iteratively merging classes according to inter-class Rank-Order distances; obtaining an intra-class convergence degree corresponding to each class after the iterative merge, said intra-class convergence degree being either the average of all the inter-object distances within the class or the normalized average of all the inter-object distances within the class; for each class obtained by the iterative merge, removing objects that do not have an inter-object distance, with any other object within the same class, less than the intra-class convergence degree from objects within the class that do have an inter-object distance, with another object within the same class, less than the intra-class convergence degree, grouping together into a new class the objects within the class that have inter-object distances with one another that are less than the intra-class convergence degree, and updating the number of classes; and if the number of classes after an update is less than the number of classes before the update, returning to the step of performing the iterative merge on the classes according to inter-class Rank-Order distances, until the numbers of classes is the same before and after an update, whereupon the classes after the update constitute a clustering result.
A toy assembly, comprising: a housing; an inner object inside the housing and is removable from the housing; and a breakout mechanism that is associated with the housing and that is operable to break the housing to expose the inner object, wherein the breakout mechanism is powered by a breakout mechanism power source that is associated with the housing; characterised in that the toy assembly further comprises a pushbutton on the inner object that is pressed by pressing a correct spot on the housing, wherein the pushbutton controls operation of an LED in the inner object, wherein the LED, when illuminated, is visible through the housing. a housing; an inner object inside the housing and is removable from the housing; and a breakout mechanism that is associated with the housing and that is operable to break the housing to expose the inner object, wherein the breakout mechanism is powered by a breakout mechanism power source that is associated with the housing; characterised in that the toy assembly further comprises a pushbutton on the inner object that is pressed by pressing a correct spot on the housing, wherein the pushbutton controls operation of an LED in the inner object, wherein the LED, when illuminated, is visible through the housing.
A housing to accommodate an electronic circuit comprising several components, said housing consisting of a carrier plate and a housing cover having a circumferentially closed wall arranged on the carrier plate and having a cover part arranged on the wall opposite from the carrier plate, characterized in that a volume-equalizing element is fastened to the carrier plate in an inner chamber which is enclosed by the housing cover so as to be pressure-tight vis-à-vis the outside atmosphere and which is configured elastically in such a way that, for purposes of equalizing pressure fluctuations that occur in the inner chamber, a variable volume is created by a change in the position of the volume-equalizing element relative to the carrier plate, and moreover, an intermediate space between the volume-equalizing element and the carrier plate is connected to the outside atmosphere, whereby the volume-equalizing element consists of an outer fastening section and an inner membrane section that are connected to each other circumferentially by means of a resilient connecting part, and whereby the side of the fastening section facing the electronic circuit has volume elements which project into intermediate spaces between the electronic components and the wall and which serve to reduce the air volume present in the inner chamber.
A polyolefin-based resin composition comprising: a polyolefin-based resin, an aliphatic polycarbonate resin, and an acid modified polypropylene, wherein, per 100 parts by mass of the polyolefin-based resin, 0.05 to 10 parts by mass of the aliphatic polycarbonate resin and 0.01 to 2 parts by mass of the acid modified polypropylene are present.
A decoding device comprising: a decoding unit configured: for a 4x4 transform block, to perform up-right diagonal scanning and to apply multi-level significance map decoding to the 4x4 transform block; and for an 8x8 transform block, to perform up-right diagonal scanning by applying up-right diagonal scanning in units of 4x4 sub-blocks while performing up-right diagonal scanning within each of the 4x4 sub-blocks, and to apply multi-level significance map decoding to the 8x8 transform block. for a 4x4 transform block, to perform up-right diagonal scanning and to apply multi-level significance map decoding to the 4x4 transform block; and for an 8x8 transform block, to perform up-right diagonal scanning by applying up-right diagonal scanning in units of 4x4 sub-blocks while performing up-right diagonal scanning within each of the 4x4 sub-blocks, and to apply multi-level significance map decoding to the 8x8 transform block.
A method performed by a network node (102, 104) for handover from a 5G radio access network, 5G-RAN, to a 4G-RAN, the method comprising: assigning a first bearer identifier, ID, to at least a first Quality of Service, QoS, flow for a User Equipment, UE,; assigning a second bearer ID to at least a second QoS flow for the UE; generating a handover message; and transmitting the handover message, wherein generating the handover message comprises including the first and second bearer IDs in the handover message; selecting a translation method for mapping 5G QoS flows for the UE to 4G bearers, wherein selecting the translation method comprises selecting a translation method that matches a translation method selected by a 5G core network, CN, node, and wherein selecting the translation method that matches a translation method selected by the 5G CN node comprises determining the translation method selected by the 5G CN node by receiving from the 5G CN node a message identifying the translation method selected by the 5G CN node. assigning a first bearer identifier, ID, to at least a first Quality of Service, QoS, flow for a User Equipment, UE,; assigning a second bearer ID to at least a second QoS flow for the UE; generating a handover message; and transmitting the handover message, wherein generating the handover message comprises including the first and second bearer IDs in the handover message; selecting a translation method for mapping 5G QoS flows for the UE to 4G bearers, wherein selecting the translation method comprises selecting a translation method that matches a translation method selected by a 5G core network, CN, node, and wherein selecting the translation method that matches a translation method selected by the 5G CN node comprises determining the translation method selected by the 5G CN node by receiving from the 5G CN node a message identifying the translation method selected by the 5G CN node.
A method for producing an implant from intestinal tissue, the intestinal tissue comprising a tubular segment of intestine with at least part of its associated vasculature intact, the method comprising: perfusing the vasculature through a vessel thereof with a series of decellularising media wherein the series of media comprises at least one detergent, at least one protease and at least one DNase; and separately perfusing the tubular segment of intestine through its lumen with a series of decellularising media wherein the series of media comprises at least one detergent, at least one protease and at least one DNase, wherein perfusion of the vasculature is carried out according to a first perfusion protocol and perfusion of the tubular segment of intestine is carried out according to a second, different, protocol and wherein the first and second protocols differ in their respective decellularising media and/or perfusion times. perfusing the vasculature through a vessel thereof with a series of decellularising media wherein the series of media comprises at least one detergent, at least one protease and at least one DNase; and separately perfusing the tubular segment of intestine through its lumen with a series of decellularising media wherein the series of media comprises at least one detergent, at least one protease and at least one DNase,
A level shifter circuit for driving a load via a high-voltage power supply line, the circuit including: - an input stage for receiving a low-voltage input signal switchable between a first and a second input level (0, LVP), - a low-voltage output stage (LL, A) coupled between said high-voltage power supply line and a reference voltage (REF_HVP) to produce a drive signal for said load, the output stage (LL, A) switchable between a first and a second output level (REF_HVP, HVP), - a level translator set between the input stage and the output stage (LL, A), whereby said input signal switching between said first and second input levels (0, LVP) causes said output stage (LL, A) to switch between said first and second output levels (REF_HVP, HVP), - a feedback element coupled to said output stage (LL, A) for transferring to said input stage a feedback signal representative of the output level of the output stage (LL, A), wherein the input stage includes control circuitry (12 to 18, 22) sensitive to said input signal and said feedback signal and configured for detecting undesired switching of said output stage (LL, A) between said first and second output levels (REF_HVP, HVP) occurring in the absence of a switching of the input signal between said first and second input levels (0, LVP) and inverting the output level (Q_N) of said output stage (LL, A) resulting from said undesired switching. - an input stage for receiving a low-voltage input signal switchable between a first and a second input level (0, LVP), - a low-voltage output stage (LL, A) coupled between said high-voltage power supply line and a reference voltage (REF_HVP) to produce a drive signal for said load, the output stage (LL, A) switchable between a first and a second output level (REF_HVP, HVP), - a level translator set between the input stage and the output stage (LL, A), whereby said input signal switching between said first and second input levels (0, LVP) causes said output stage (LL, A) to switch between said first and second output levels (REF_HVP, HVP), - a feedback element coupled to said output stage (LL, A) for transferring to said input stage a feedback signal representative of the output level of the output stage (LL, A),
A battery pack comprising: a case comprising a cell accommodation portion to accommodate a battery cell; and output terminals (E1, E2) protruding upward from a first side of an upper portion of the case, wherein the output terminals (E1, E2) protrude from first height-difference surfaces stepped downward from a first surface that is an uppermost surface of the first side of the case, and wherein a second surface inclined with respect to the first surface is on a second side of a lower portion which is opposite the first side of the battery pack. a case comprising a cell accommodation portion to accommodate a battery cell; and output terminals (E1, E2) protruding upward from a first side of an upper portion of the case, wherein the output terminals (E1, E2) protrude from first height-difference surfaces stepped downward from a first surface that is an uppermost surface of the first side of the case, and wherein a second surface inclined with respect to the first surface is on a second side of a lower portion which is opposite the first side of the battery pack.
A pharmaceutical composition for use in relieving pain in a human joint disease, comprising: a hyaluronic acid that is cross-linked by cyclizing a double bond in a moiety of a cinnamic acid in a partially amidated hyaluronic acid represented by Formula, to form a cyclobutane ring, [Ar-CH=CH-COO-(CH 2)n-NH-]m-HA in which Ar represents an optionally substituted phenyl group, n represents an integer of 2 or 3, HA represents a carboxy residue of the hyaluronic acid, and m represents an amidation ratio of the hyaluronic acid to a total of a carboxyl group and is 3% to 50% relative to the total carboxyl group; and a pharmaceutically acceptable carrier, wherein the pharmaceutical composition is an injection product, wherein a single dosage of the injection product is 2 to 3 mL; and wherein the pharmaceutical composition is a single-dose preparation, and is administered at an administration interval of 13 weeks or more. a hyaluronic acid that is cross-linked by cyclizing a double bond in a moiety of a cinnamic acid in a partially amidated hyaluronic acid represented by Formula, to form a cyclobutane ring, [Ar-CH=CH-COO-(CH 2)n-NH-]m-HA in which Ar represents an optionally substituted phenyl group, n represents an integer of 2 or 3, HA represents a carboxy residue of the hyaluronic acid, and m represents an amidation ratio of the hyaluronic acid to a total of a carboxyl group and is 3% to 50% relative to the total carboxyl group; and a pharmaceutically acceptable carrier, wherein the pharmaceutical composition is an injection product, wherein a single dosage of the injection product is 2 to 3 mL; and wherein the pharmaceutical composition is a single-dose preparation, and is administered at an administration interval of 13 weeks or more.