mhurhangee/patent-ind-claim-en huggingface dataset:
A keyword detection apparatus comprising: a keyword detection unit that is configured to generate a keyword detection result indicating a result of detecting an utterance of a predetermined keyword from an input voice; a voice detection unit that is configured to generate a voice section detection result indicating a result of detecting a voice section from the input voice; a delay unit that is configured to give a delay that is at least longer than an average utterance time of the keyword, to the voice section detection result; and an in-sentence keyword excluding unit that is configured to update the keyword detection result to a result indicating that the keyword has not been detected when the keyword detection result indicates that the keyword has been detected and the delayed voice section detection result output from the delay unit indicates that a voice section has been detected. a keyword detection unit that is configured to generate a keyword detection result indicating a result of detecting an utterance of a predetermined keyword from an input voice; a voice detection unit that is configured to generate a voice section detection result indicating a result of detecting a voice section from the input voice; a delay unit that is configured to give a delay that is at least longer than an average utterance time of the keyword, to the voice section detection result; and an in-sentence keyword excluding unit that is configured to update the keyword detection result to a result indicating that the keyword has not been detected when the keyword detection result indicates that the keyword has been detected and the delayed voice section detection result output from the delay unit indicates that a voice section has been detected.
A method for device to device synchronization signal, D2DSS, generation by a terminal, the method comprising: determining whether the terminal is in a coverage of a base station; generating a D2DSS based on a first root index and a first combination value equal to or less than 167, if the terminal is in the coverage of the base station; and generating a D2DSS based on a second root index different from the first root index and a second combination value equal to or greater than 168, if the terminal is out of coverage of the base station, wherein the first root index and the second root index are different from a root index used by the base station, and wherein the first combination value and the second combination value is used to determine cyclic shift m0 and m1 values for the D2DSS. determining whether the terminal is in a coverage of a base station; generating a D2DSS based on a first root index and a first combination value equal to or less than 167, if the terminal is in the coverage of the base station; and generating a D2DSS based on a second root index different from the first root index and a second combination value equal to or greater than 168, if the terminal is out of coverage of the base station, wherein the first root index and the second root index are different from a root index used by the base station, and wherein the first combination value and the second combination value is used to determine cyclic shift m0 and m1 values for the D2DSS.
A bandwidth configuration method, comprising: receiving , by user equipment, UE, at least two pieces of virtual bandwidth configuration information from a base station, wherein each of the at least two pieces of virtual bandwidth configuration information is used for indicating a configuration of a virtual bandwidth, in a one-to-one relationship; receiving , by the UE, first configuration information from the base station, wherein the first configuration information is used for instructing the UE to perform signal reception or signal processing according to a first virtual bandwidth, wherein the first virtual bandwidth is one of at least two virtual bandwidths, and configurations of the at least two virtual bandwidths are indicated by the at least two pieces of virtual bandwidth configuration information; and performing , by the UE, signal reception and/or signal processing according to the first virtual bandwidth instructed by the first configuration information, wherein each virtual bandwidth of the at least two virtual bandwidths is a part or all of a downlink maximum available bandwidth or a downlink transmission bandwidth, and the downlink maximum available bandwidth is a maximum bandwidth available for downlink transmission. receiving , by user equipment, UE, at least two pieces of virtual bandwidth configuration information from a base station, wherein each of the at least two pieces of virtual bandwidth configuration information is used for indicating a configuration of a virtual bandwidth, in a one-to-one relationship; receiving , by the UE, first configuration information from the base station, wherein the first configuration information is used for instructing the UE to perform signal reception or signal processing according to a first virtual bandwidth, wherein the first virtual bandwidth is one of at least two virtual bandwidths, and configurations of the at least two virtual bandwidths are indicated by the at least two pieces of virtual bandwidth configuration information; and performing , by the UE, signal reception and/or signal processing according to the first virtual bandwidth instructed by the first configuration information, wherein each virtual bandwidth of the at least two virtual bandwidths is a part or all of a downlink maximum available bandwidth or a downlink transmission bandwidth, and the downlink maximum available bandwidth is a maximum bandwidth available for downlink transmission.
A method implemented by a network controller for virtual network, VN, management, wherein the network controller comprises a VN controller and one or more physical network controllers, PNCs, , the VNC is configured to manage and coordinate with the multiple PNCs, and each PNC is configured to manage a plurality of physical network nodes (211-213, or 214-216) ; the method comprising: receiving a request via an application programming interface, API, wherein the request comprises program codes written in a declarative programming language, and wherein the program codes describe at least some aspects of a VN; and parsing the program codes into internal objects of the network controller, wherein the internal objects represent the aspects of the VN described by the program codes; wherein the VN comprises network nodes, ports on the network nodes, and links between the ports, and wherein the program codes comprise instructions for creating the VN, wherein the method further comprises creating the VN using an internal API of the network controller according to the internal objects, which are understandable by the internal API, and wherein creating the VN comprises setting up at least one of the network nodes, the ports, the links, and bandwidths assigned to the links, and wherein the declarative programming language uses an extensible markup language, XML, schema with defined legal names, wherein the legal names used in describing the VN comprise one or more of node, port, link, bandwidth, policy, and event. receiving a request via an application programming interface, API, wherein the request comprises program codes written in a declarative programming language, and wherein the program codes describe at least some aspects of a VN; and parsing the program codes into internal objects of the network controller, wherein the internal objects represent the aspects of the VN described by the program codes; wherein the VN comprises network nodes, ports on the network nodes, and links between the ports, and wherein the program codes comprise instructions for creating the VN, wherein the method further comprises creating the VN using an internal API of the network controller according to the internal objects, which are understandable by the internal API, and wherein creating the VN comprises setting up at least one of the network nodes, the ports, the links, and bandwidths assigned to the links, and wherein the declarative programming language uses an extensible markup language, XML, schema with defined legal names, wherein the legal names used in describing the VN comprise one or more of node, port, link, bandwidth, policy, and event.
A glass-based article comprising: a glass-based substrate having opposing first and second surfaces defining a substrate thickness ( t ); a stress profile comprising: a compressive stress region extending from the first surface to a depth of compression (DOC), wherein the DOC is located at 0.04• t or deeper; and a central tension region; an alkali metal oxide present in at least the central tension region, wherein the alkali metal oxide is not lithium oxide; a first metal oxide whose metal has the same or smaller atomic radius than the alkali metal of the alkali metal oxide, wherein a concentration of the first metal oxide varies within at least a portion of the compressive stress region; and a second metal oxide whose metal has a larger atomic radius than the alkali metal of the alkali metal oxide, wherein a concentration of the second metal oxide varies within at least a portion of the compressive stress region; wherein the base composition of the glass-based substrate does not contain lithium oxide. a glass-based substrate having opposing first and second surfaces defining a substrate thickness ( t ); a stress profile comprising: a compressive stress region extending from the first surface to a depth of compression (DOC), wherein the DOC is located at 0.04• t or deeper; and a central tension region; a compressive stress region extending from the first surface to a depth of compression (DOC), wherein the DOC is located at 0.04• t or deeper; and a central tension region; an alkali metal oxide present in at least the central tension region, wherein the alkali metal oxide is not lithium oxide; a first metal oxide whose metal has the same or smaller atomic radius than the alkali metal of the alkali metal oxide, wherein a concentration of the first metal oxide varies within at least a portion of the compressive stress region; and a second metal oxide whose metal has a larger atomic radius than the alkali metal of the alkali metal oxide, wherein a concentration of the second metal oxide varies within at least a portion of the compressive stress region; wherein the base composition of the glass-based substrate does not contain lithium oxide.
A method of monitoring a split wind-turbine-converter system , wherein the split converter system comprises at least one generator-side converter , at least one grid-side converter , and a DC-link connecting the at least one generator-side converter to the at least one grid-side converter, wherein the at least one generator-side converter and the at least one grid-side converter are arranged at distant locations, wherein the DC-link is provided by an elongated conductor arrangement comprising at least one positive conductor and at least one negative conductor , the method comprising: determining an impedance of the elongated DC-link conductor arrangement by means of first and second DC-voltage sensors that measure voltage, by: determining, with the first DC-voltage sensor , the voltage between the positive and the negative conductor of the DC-link conductor arrangement at the generator-side converter; determining, with the second DC-voltage sensor , the voltage between the positive and the negative conductor of the DC-link conductor arrangement at the grid-side converter; determining a difference between the voltages determined on the basis of the first and second DC-voltage sensors ; and determining the impedance of the DC-link conductor arrangement by putting the determined voltage difference in relation to a known or measured DC current flowing through the DC-link conductor arrangement; and recognizing a fault state in response to the impedance exceeding a given impedance threshold. determining, with the first DC-voltage sensor , the voltage between the positive and the negative conductor of the DC-link conductor arrangement at the generator-side converter; determining, with the second DC-voltage sensor , the voltage between the positive and the negative conductor of the DC-link conductor arrangement at the grid-side converter; determining a difference between the voltages determined on the basis of the first and second DC-voltage sensors ; and determining the impedance of the DC-link conductor arrangement by putting the determined voltage difference in relation to a known or measured DC current flowing through the DC-link conductor arrangement; and recognizing a fault state in response to the impedance exceeding a given impedance threshold.
A buccal pharmaceutical, veterinary or cosmetic composition which comprises an effective amount of: a) octenidine or a pharmaceutically, veterinary or cosmetically acceptable salt thereof, b) a zinc ion source, and c) a fluoride ion source, together with one or more appropriate oral pharmaceutically, veterinary or cosmetically acceptable excipients or carriers. a) octenidine or a pharmaceutically, veterinary or cosmetically acceptable salt thereof, b) a zinc ion source, and c) a fluoride ion source,
A solution for storing a polymerase, the solution comprising, a polymerase; sodium dodecyl sulfate (SDS) as anionic surfactant at a concentration of 0.001 % to 0.09 %; and cetyl trimethylammonium bromide (CTAB) as cationic surfactant at a concentration of 0.001 % to 0.09 %, wherein the concentration of one of the surfactants is no more than 20% different from the other surfactant.
Method of making integrated circuit packages, comprising the steps of a) providing a plurality of die members connected to respective electrical contact members in a mould; b) providing a mould insert in contact with at least a part of a first upper surface of a first die member of the plurality of die members ; c) encasing the plurality of die members and the respective electrical contact members into a package collection body ; and d) cutting the package collection body into at least two separate integrated circuit packages along a first cutting line (S 1 ) extending through the package collection body and separating the plurality of die members , wherein the mould insert as provided in step b) extends across a part of the first cutting line (S 1 ). a) providing a plurality of die members connected to respective electrical contact members in a mould; b) providing a mould insert in contact with at least a part of a first upper surface of a first die member of the plurality of die members ; c) encasing the plurality of die members and the respective electrical contact members into a package collection body ; and d) cutting the package collection body into at least two separate integrated circuit packages along a first cutting line (S 1 ) extending through the package collection body and separating the plurality of die members , wherein the mould insert as provided in step b) extends across a part of the first cutting line (S 1 ).
A system comprising: a cochlear implant including a resilient housing , a magnet pocket , a magnet aperture having an aperture diameter, and a magnet having a magnet diameter that is greater than the aperture diameter; and a cochlear implant magnet installation system including an installation device including an installation device handle portion defining a longitudinal axis and a distal portion to which the magnet may be magnetically secured; and a guide including a guide handle portion and a first end portion , the first end portion having a curved abutment and a projection that extends distally beyond the curved abutment, wherein the first end portion is configured to separate a magnet that is magnetically secured to the distal portion of the installation device from the distal portion of the installation device in response to distal longitudinal movement of the guide relative to the installation device, and wherein the installation device and the guide are configured to be longitudinally aligned with one another. a cochlear implant including a resilient housing , a magnet pocket , a magnet aperture having an aperture diameter, and a magnet having a magnet diameter that is greater than the aperture diameter; and a cochlear implant magnet installation system including an installation device including an installation device handle portion defining a longitudinal axis and a distal portion to which the magnet may be magnetically secured; and a guide including a guide handle portion and a first end portion , the first end portion having a curved abutment and a projection that extends distally beyond the curved abutment, wherein the first end portion is configured to separate a magnet that is magnetically secured to the distal portion of the installation device from the distal portion of the installation device in response to distal longitudinal movement of the guide relative to the installation device, and wherein the installation device and the guide are configured to be longitudinally aligned with one another. an installation device including an installation device handle portion defining a longitudinal axis and a distal portion to which the magnet may be magnetically secured; and a guide including a guide handle portion and a first end portion , the first end portion having a curved abutment and a projection that extends distally beyond the curved abutment, wherein the first end portion is configured to separate a magnet that is magnetically secured to the distal portion of the installation device from the distal portion of the installation device in response to distal longitudinal movement of the guide relative to the installation device, and wherein the installation device and the guide are configured to be longitudinally aligned with one another.
A floor panel assembly comprising: an insulating layer; a sheet heater, the sheet heater attached to the insulating layer by a first adhesive; a first structural layer attached to the sheet heater opposite the insulating layer by a second adhesive; a honeycomb layer attached to the first structural layer opposite the sheet heater with a third adhesive; and a second structural layer attached to the honeycomb opposite the first structural layer with a fourth adhesive, wherein the insulating layer is a nano alumina fabric, or wherein the insulating layer is a boron nitride nanotube fabric. an insulating layer; a sheet heater, the sheet heater attached to the insulating layer by a first adhesive; a first structural layer attached to the sheet heater opposite the insulating layer by a second adhesive; a honeycomb layer attached to the first structural layer opposite the sheet heater with a third adhesive; and a second structural layer attached to the honeycomb opposite the first structural layer with a fourth adhesive,
A method for forming a protective barrier on a furnace electrode made of graphite, comprising: providing electrode cooling water; mixing an antioxidant additive with the electrode cooling water to form a cooling liquid ; spraying at least a surface of the furnace electrode disposed adjacent a furnace with the cooling liquid , thereby cooling the furnace electrode ; forming a protective antioxidative barrier on the furnace electrode , the protective antioxidative barrier comprising the antioxidant additive which has been deposited and/or precipitated on the furnace electrode from the cooling liquid , characterized in that the protective antioxidative barrier is formed as a two-phase coating that includes (i) a first coating that is formed from the antioxidant additive which has been deposited and/or precipitated on the furnace electrode from the cooling liquid , the first coating being located on a first portion of an exterior surface of the electrode; and (ii) a second coating that is formed from the antioxidant additive in a melted state, the second coating being located on a second portion of the exterior surface of the electrode . providing electrode cooling water; mixing an antioxidant additive with the electrode cooling water to form a cooling liquid ; spraying at least a surface of the furnace electrode disposed adjacent a furnace with the cooling liquid , thereby cooling the furnace electrode ; forming a protective antioxidative barrier on the furnace electrode , the protective antioxidative barrier comprising the antioxidant additive which has been deposited and/or precipitated on the furnace electrode from the cooling liquid , characterized in that the protective antioxidative barrier is formed as a two-phase coating that includes (i) a first coating that is formed from the antioxidant additive which has been deposited and/or precipitated on the furnace electrode from the cooling liquid , the first coating being located on a first portion of an exterior surface of the electrode; and (ii) a second coating that is formed from the antioxidant additive in a melted state, the second coating being located on a second portion of the exterior surface of the electrode .
A dermatological treatment device comprising a laser head capable of shooting a laser beam towards a target region of the skin of a patient, a pyrometer capable of measuring the temperature (T) of the skin in said target region , a timer capable of measuring the duration (D) of the laser shot, and a control means capable of selectively activating or deactivating a laser shot, characterized in that the pyrometer is able to measure the temperature of the skin over time and in a dynamic way and in that the control means is configured to deactivate the laser shot when the duration (D) of the shot reaches a duration threshold in seconds (Sd) as determined immediately before or immediately after the beginning of the laser shot by a linear function in the form Sd=(To-T-b)/C, where T is the measured temperature (T) of the skin, To is a target temperature, b is a temperature offset corresponding to a corrective value and C is an average heating coefficient of the skin which reflects the variation of the skin temperature T measured over time (in °C.s -1 )
An apparatus operable in a communication system , comprising: processing circuitry configured to: provide a first synchronization sequence in a first domain; provide a second synchronization sequence in said first domain having a different length than said first synchronization sequence; transform said first synchronization sequence and said second synchronization sequence into a second domain, wherein said first domain is a time domain and said second domain is a frequency domain; extend said first synchronization sequence in said second domain and said second synchronization sequence in said second domain to a common length to produce an extended first synchronization sequence and an extended second synchronization sequence; transform said extended first synchronization sequence and said extended second synchronization sequence into said first domain; and multiply elementwise said extended first synchronization sequence in said first domain by said extended second synchronization sequence in said first domain to obtain a composite synchronization sequence for a physical random access channel preamble. provide a first synchronization sequence in a first domain; provide a second synchronization sequence in said first domain having a different length than said first synchronization sequence; transform said first synchronization sequence and said second synchronization sequence into a second domain, wherein said first domain is a time domain and said second domain is a frequency domain; extend said first synchronization sequence in said second domain and said second synchronization sequence in said second domain to a common length to produce an extended first synchronization sequence and an extended second synchronization sequence; transform said extended first synchronization sequence and said extended second synchronization sequence into said first domain; and multiply elementwise said extended first synchronization sequence in said first domain by said extended second synchronization sequence in said first domain to obtain a composite synchronization sequence for a physical random access channel preamble.