mhurhangee/patent-ind-claim-en huggingface dataset:
A modified polyvinyl alcohol comprising a monomer unit represented by formula (I), and a structural unit represented by formula (II): wherein in the formula (I), R 1 represents a hydrogen atom, or a linear or branched alkyl group having 1 to 8 carbon atoms, and R 2 represents -R 3 -SO 3 - X + , -R 3 -N + (R 4 ) 3 Cl - , or a hydrogen atom, R 3 representing a linear or branched alkanediyl group having 1 to 10 carbon atoms, X representing a hydrogen atom, a metal atom, or an ammonium group, and R 4 representing a linear or branched alkyl group having 1 to 5 carbon atoms, wherein a plurality of R 4 s are identical or different; and wherein in the formula (II), R 5 represents a hydrogen atom, or a linear or branched alkyl group having 1 to 8 carbon atoms, wherein: a percentage content of the monomer unit represented by the formula (I) with respect to total monomer units in the modified polyvinyl alcohol is 0.05 mol% or greater and 10 mol% or less; a percentage content of the structural unit represented by the formula (II) with respect to the total monomer units in the modified polyvinyl alcohol is 0.001 mol% or greater and 0.5 mol% or less; a viscosity average degree of polymerization is 300 or greater and 3,000 or less; and a degree of saponification is 82 mol% or greater and 99.5 mol% or less, wherein the percentage content of the monomer unit represented by the formula (I) and the percentage content of the structural unit represented by the formula (II) are values determined by dissolving the modified polyvinyl alcohol in D 2 O and carrying out a measurement by using a 600-MHz 1 H-NMR measurement device at 80 °C, the viscosity average degree of polymerization is a value determined by a method defined in JIS-K6726-1994, and the degree of saponification is a value determined by a method defined in JIS-K6726-1994. R 1 represents a hydrogen atom, or a linear or branched alkyl group having 1 to 8 carbon atoms, and R 2 represents -R 3 -SO 3 - X + , -R 3 -N + (R 4 ) 3 Cl - , or a hydrogen atom, R 3 representing a linear or branched alkanediyl group having 1 to 10 carbon atoms, X representing a hydrogen atom, a metal atom, or an ammonium group, and R 4 representing a linear or branched alkyl group having 1 to 5 carbon atoms, wherein a plurality of R 4 s are identical or different; and wherein in the formula (II), R 5 represents a hydrogen atom, or a linear or branched alkyl group having 1 to 8 carbon atoms, a percentage content of the monomer unit represented by the formula (I) with respect to total monomer units in the modified polyvinyl alcohol is 0.05 mol% or greater and 10 mol% or less; a percentage content of the structural unit represented by the formula (II) with respect to the total monomer units in the modified polyvinyl alcohol is 0.001 mol% or greater and 0.5 mol% or less; a viscosity average degree of polymerization is 300 or greater and 3,000 or less; and a degree of saponification is 82 mol% or greater and 99.5 mol% or less, wherein
A network device , comprising: a receiver configured to receive a connection request to connect to a source core network from a user device ; a determiner configured to determine a compatibility of the user device with a target core network which is different from the source core network, and, in the case that the user device is compatible with the target core network, to generate an instruction for the user device to register with the target core network; wherein the instruction comprises a rejection of the connection request and a cause, and wherein the cause includes a direction to register on the target core network; wherein the network device is further configured to transmit a connection rejection message to the user device in response to the received connection request ; wherein the connection rejection message includes the cause; wherein the network device is further configured to register a network priority value, which is updatable to be the network priority value of the target core network higher than that of the source core network, to maintain a connection between the user device and the target core network. a receiver configured to receive a connection request to connect to a source core network from a user device ; a determiner configured to determine a compatibility of the user device with a target core network which is different from the source core network, and, in the case that the user device is compatible with the target core network, to generate an instruction for the user device to register with the target core network; wherein the instruction comprises a rejection of the connection request and a cause, and wherein the cause includes a direction to register on the target core network; wherein the network device is further configured to transmit a connection rejection message to the user device in response to the received connection request ; wherein the connection rejection message includes the cause; wherein the network device is further configured to register a network priority value, which is updatable to be the network priority value of the target core network higher than that of the source core network, to maintain a connection between the user device and the target core network.
Method for correcting measurements made by a sensor (Ca) of a magnetic field of a magnet (Ai) disposed on a shaft (Ar) of a motor (Mo) for controlling the motor, the motor (Mo) being a brushless DC motor comprising a rotor (Ro) and a stator, the magnetic-field sensor (Ca) making it possible to obtain values of angles during the rotation of the motor, a stator turn being divided into sectors, each sector comprising a plurality of combinations of stator coil commands, each command corresponding to a defined angular range, characterised in that the method comprises the steps, performed by a controller (Co) of the motor, of: - setting the rotor in rotation (S40) by creating a rotating field in the stator without knowing the position of the rotor, - obtaining (S44) values of so-called standardised angles from the magnetic-field sensor, the values of standardised angles being obtained during a complete turn of the rotor, - calculating (S46) linearisation corrections of the standardised angles obtained, - obtaining, for each sector, an angular position of the rotor for a given combination of the sector, - determining an angular mean from the angular positions obtained to obtain an angular difference between the magnetic-field sensor and the magnet disposed on said motor shaft, - setting the rotor in rotation using the angular difference between the magnetic-field sensor and the magnet disposed on said motor shaft, - varying the angular difference and, for each variation, measuring the current consumed by the motor, - selecting the variation that corresponds to the minimum current consumed by the motor as the value of the angular difference. - setting the rotor in rotation (S40) by creating a rotating field in the stator without knowing the position of the rotor, - obtaining (S44) values of so-called standardised angles from the magnetic-field sensor, the values of standardised angles being obtained during a complete turn of the rotor, - calculating (S46) linearisation corrections of the standardised angles obtained, - obtaining, for each sector, an angular position of the rotor for a given combination of the sector, - determining an angular mean from the angular positions obtained to obtain an angular difference between the magnetic-field sensor and the magnet disposed on said motor shaft, - setting the rotor in rotation using the angular difference between the magnetic-field sensor and the magnet disposed on said motor shaft, - varying the angular difference and, for each variation, measuring the current consumed by the motor, - selecting the variation that corresponds to the minimum current consumed by the motor as the value of the angular difference.
An egg-orienting station for an apparatus for transporting eggs and packaging them in egg packs , having a plurality of tracks , which are arranged parallel to one another in the conveying direction (F 1 ), and a transfer region for transferring the eggs to a conveyor belt , whereby an adjustment device is arranged upstream from the transfer region , with which adjustment device the eggs can be placed either with the egg bottom or the egg top into egg holders of the first conveyor belt , characterized in that the adjustment device has a rod which extends transversely with respect to the tracks and which is secured pivotably on a housing of the egg-orienting station , and indexing plates oriented in the conveying direction (F 1 ) are arranged on the rod .
An unlocking device, comprising: a moving part comprising a guide rail ; an unlocking part configured to unlock a locking mechanism for an electric vehicle ; and a drive device configured to drive the unlocking part to move on the guide rail , wherein the unlocking part comprises an unlocking ejector rod arranged upwards on the guide rail and movable along the guide rail ; wherein he moving part further comprises a moving seat mounted on the guide rail and movable along the guide rail , and the unlocking ejector rod is arranged on the moving seat ; wherein the unlocking part further comprises a hollow fixing cylinder perpendicularly mounted on an upper surface of the moving seat , characterized in that the unlocking ejector rod has a bottom end movably mounted in the fixing cylinder by means of an elastic member. a moving part comprising a guide rail ; an unlocking part configured to unlock a locking mechanism for an electric vehicle ; and a drive device configured to drive the unlocking part to move on the guide rail , wherein the unlocking part comprises an unlocking ejector rod arranged upwards on the guide rail and movable along the guide rail ; wherein he moving part further comprises a moving seat mounted on the guide rail and movable along the guide rail , and the unlocking ejector rod is arranged on the moving seat ; wherein the unlocking part further comprises a hollow fixing cylinder perpendicularly mounted on an upper surface of the moving seat , characterized in that the unlocking ejector rod has a bottom end movably mounted in the fixing cylinder by means of an elastic member.
Multi-core device (D) for an electronic equipment (UE), comprising at least two cores (Ci) arranged to execute different softwares (Si), including a first software (S1) and a second software (S2), stored into storing means including a primary memory (PM2), a secondary memory (SM1) arranged for durably storing the softwares (Si) to be executed by each of said cores (Ci), and an external memory (EM1), wherein the second software (S2) is different from the first software (S1), wherein at least one (C2) of said cores (Ci) is associated with i) the primary memory (PM2) of the RAM type, arranged for durably storing, without power consumption, the second software (S2) to be executed by the at least one (C2) of said cores once said second software (S2) has been transferred from said secondary memory (SM1) into the primary memory (PM2) along with data associated with said second software (S2) when it is executed, and ii) a first memory interface (MI2) coupled to said primary memory (PM2) and arranged to allow said at least one core (C2) to execute said second software (S2) durably stored into said primary memory (PM2) and to access the data associated with this second software (S2) when it is executed, wherein another one (C1) of said cores (Ci) is associated with said secondary memory (SM1), and wherein said another one (C1) of said cores is associated with i) said external memory (EM1) of the RAM type, which is coupled to said secondary memory (SM1) and is capable of dynamically storing the first software (S1) to be executed by said another (C1) of said cores once said first software (S1) has been transferred from said secondary memory (SM1), and ii) a second memory interface (MI1) coupled to said external memory (EM1) and arranged to allow said another one (C1) of said cores to execute the first software (S1) stored in said external memory (EM1), wherein said multi-core device (D) is configured such that the second software (S2) is transferred or downloaded from the secondary memory (SM1) into the primary memory (PM2) at the very first boot of the electronic equipment (UE) or each time the electronic equipment (UE) wants or needs to update it, so, once the transfer of the second software (S2) has been performed, the at least one core (C2) becomes autonomous with regards to the another core (C1) and therefore can execute the second software (S2) in an independent manner, and thus no time is lost for transferring the second software (S2) at each electronic equipment boot.
An electronic device in a wireless communication system, comprising: one or more processing circuits configured to perform operations of: measuring channel state information reference signals CSI-RSs on one or more antenna ports respectively, in response to a measurement indication from a base station in the wireless communication system; and generating feedback information based on a measurement result, the feedback information comprising occupation information indicating an occupation condition of each of the one or more antenna ports and wherein the occupation condition indicates whether a port has been occupied by electronic devices of a current cell other than the electronic device and the base station, wherein the number of the one or more antenna ports is n, where n is a natural number, and wherein the occupation information comprises a bitmap having n bits, and each bit corresponds to the occupation condition of each one antenna port of the one or more antenna ports. one or more processing circuits configured to perform operations of: measuring channel state information reference signals CSI-RSs on one or more antenna ports respectively, in response to a measurement indication from a base station in the wireless communication system; and generating feedback information based on a measurement result, the feedback information comprising occupation information indicating an occupation condition of each of the one or more antenna ports and wherein the occupation condition indicates whether a port has been occupied by electronic devices of a current cell other than the electronic device and the base station, wherein the number of the one or more antenna ports is n, where n is a natural number, and measuring channel state information reference signals CSI-RSs on one or more antenna ports respectively, in response to a measurement indication from a base station in the wireless communication system; and generating feedback information based on a measurement result, the feedback information comprising occupation information indicating an occupation condition of each of the one or more antenna ports and wherein the occupation condition indicates whether a port has been occupied by electronic devices of a current cell other than the electronic device and the base station, wherein the number of the one or more antenna ports is n, where n is a natural number, and wherein the occupation information comprises a bitmap having n bits, and each bit corresponds to the occupation condition of each one antenna port of the one or more antenna ports.
A method for scheduling uplink resources, said method performed by a primary node and comprising: determining scheduling weight information regarding said primary node and a secondary node, signalling the scheduling weight information regarding the secondary node to the secondary node, receiving buffer status information from a communication device having multiple wireless uplink data flows with the primary node and the secondary node, applying the scheduling weight information regarding the primary node to the buffer status information, and scheduling uplink transmission for the communication device based on the weighted buffer status information. determining scheduling weight information regarding said primary node and a secondary node, signalling the scheduling weight information regarding the secondary node to the secondary node, receiving buffer status information from a communication device having multiple wireless uplink data flows with the primary node and the secondary node, applying the scheduling weight information regarding the primary node to the buffer status information, and scheduling uplink transmission for the communication device based on the weighted buffer status information.
A method for transmitting a downlink control channel in a Long Term Evolution, LTE, communication system using Orthogonal Frequency Division Multiplexing, OFDM, the method comprising: mapping the downlink control channel to mini control channel elements, mini-CCEs, in a plurality of control resource blocks, wherein each control resource block consists of L OFDM symbols; and transmitting downlink control information via the mapped downlink control channel, wherein each of the mini- CCEs comprises a plurality of resource elements, REs, and one RE is expressed with a time index indicating an OFDM symbol on a time domain and a frequency index indicating a subcarrier on a frequency domain, and wherein, when the plurality of control resource blocks uses 4 antenna ports for transmission of a reference signal and L=3 OFDM symbols, seven mini-CCEs included in each control resource block are indexed sequentially based on the following order: the first indexed mini-CCE and the fifth indexed mini-CCE among the seven mini-CCEs are arranged in the first OFDM symbol, the second indexed mini-CCE and the sixth indexed mini-CCE among the seven mini-CCEs are arranged in the second OFDM symbol, and the third indexed mini-CCE, the fourth indexed mini-CCE, and the seventh indexed mini-CCE among the seven mini-CCEs are arranged in the third OFDM symbol, wherein the downlink control channel is mapped to the mini-CCEs based on the order of the mini-CCE indexing. mapping the downlink control channel to mini control channel elements, mini-CCEs, in a plurality of control resource blocks, wherein each control resource block consists of L OFDM symbols; and transmitting downlink control information via the mapped downlink control channel, wherein each of the mini- CCEs comprises a plurality of resource elements, REs, and one RE is expressed with a time index indicating an OFDM symbol on a time domain and a frequency index indicating a subcarrier on a frequency domain, and wherein, when the plurality of control resource blocks uses 4 antenna ports for transmission of a reference signal and L=3 OFDM symbols, seven mini-CCEs included in each control resource block are indexed sequentially based on the following order: the first indexed mini-CCE and the fifth indexed mini-CCE among the seven mini-CCEs are arranged in the first OFDM symbol, the second indexed mini-CCE and the sixth indexed mini-CCE among the seven mini-CCEs are arranged in the second OFDM symbol, and the third indexed mini-CCE, the fourth indexed mini-CCE, and the seventh indexed mini-CCE among the seven mini-CCEs are arranged in the third OFDM symbol, wherein the downlink control channel is mapped to the mini-CCEs based on the order of the mini-CCE indexing.
Coffee machine containing an apparatus for removing coffee foam from coffee liquid , comprising a container with a container interior, which is delimited by a peripheral container wall and a container bottom , with an inflow , which is arranged above the container bottom and via which the container interior is fillable with coffee liquid , and with a liquid outflow , which is arranged at the base of the container bottom and from which the coffee liquid freed of coffee foam is dischargeable from the container interior, characterized in that the container bottom runs together in a funnel-like manner towards the liquid outflow and has a multiplicity of peripheral steps arranged one above the other in a terrace-like manner and having in each case a peripheral step face and a standing step wall , arranged at an angle (α) thereto, which adjoin one another at a step edge .
A processing device comprising: a sound collection unit configured to collect an environmental sound outside an own vehicle; a filter unit configured to perform filtering of the environmental sound collected by the sound collection unit , for emphasizing, from the collected environmental sound, a sound characterizing a current position of the own vehicle of which the environmental sound is collected, to generate a filtered sound; and a processing unit configured to cause the environmental sound including the filtered sound to be output to the inside of the own vehicle, a detection unit configured to detect a current position of the own vehicle, the processing device characterized in that : the filter unit is configured to select a frequency filter that emphasizes the sound characterizing the current position from among a plurality of frequency filters on the basis of the current position and performs the filtering with the selected frequency filter, wherein each frequency filter of the plurality of frequency filters causes a component having a certain frequency band to pass therethrough and reduces components having other frequency bands and said plurality of frequency filters have frequency bands for reduction which are different from each other. a sound collection unit configured to collect an environmental sound outside an own vehicle; a filter unit configured to perform filtering of the environmental sound collected by the sound collection unit , for emphasizing, from the collected environmental sound, a sound characterizing a current position of the own vehicle of which the environmental sound is collected, to generate a filtered sound; and a processing unit configured to cause the environmental sound including the filtered sound to be output to the inside of the own vehicle, a detection unit configured to detect a current position of the own vehicle, the processing device characterized in that : the filter unit is configured to select a frequency filter that emphasizes the sound characterizing the current position from among a plurality of frequency filters on the basis of the current position and performs the filtering with the selected frequency filter, wherein each frequency filter of the plurality of frequency filters causes a component having a certain frequency band to pass therethrough and reduces components having other frequency bands and said plurality of frequency filters have frequency bands for reduction which are different from each other.