mhurhangee/ep-ind-claims huggingface dataset:
A base station, comprising: a connection request processing unit configured to, upon receiving a connection request from user equipment, transmit a message to a first management apparatus, the message including an identifier of the user equipment assigned by the base station configured to perform a connection operation on the user equipment; and a core network connection unit configured to, upon receiving a reroute message to indicate a reroute from the first management apparatus to a second management apparatus, transmit Non Access Stratum information in the reroute message to the second management apparatus, wherein the identifier of the user equipment assigned by the base station is configured in the reroute message without provision of an identifier of the user equipment assigned by the first management apparatus; wherein the first management apparatus has a default Mobility Management Entity, MME, in Dedicated Core Network, DECOR, and the second management apparatus has a Machine-to-Machine, M2M, dedicated MME in the DECOR, and the reroute message is configured to instruct the base station to reroute the user equipment from the default MME to the M2M dedicated MME. a connection request processing unit configured to, upon receiving a connection request from user equipment, transmit a message to a first management apparatus, the message including an identifier of the user equipment assigned by the base station configured to perform a connection operation on the user equipment; and a core network connection unit configured to, upon receiving a reroute message to indicate a reroute from the first management apparatus to a second management apparatus, transmit Non Access Stratum information in the reroute message to the second management apparatus, wherein the identifier of the user equipment assigned by the base station is configured in the reroute message without provision of an identifier of the user equipment assigned by the first management apparatus; wherein the first management apparatus has a default Mobility Management Entity, MME, in Dedicated Core Network, DECOR, and the second management apparatus has a Machine-to-Machine, M2M, dedicated MME in the DECOR, and the reroute message is configured to instruct the base station to reroute the user equipment from the default MME to the M2M dedicated MME.
A method for performing ranging at a Machine to Machine, M2M, device in a wireless communication system, the method comprising: receiving a Primaty SuperFrame Header, P-SFH, and a Secondary SuperFrame Header, S-SFH; receiving an Advanced Air Interface-System Configuration Descriptor, AAI-SCD, message; and performing dedicated ranging using M2M dedicated ranging information included in the AAI-SCD message, wherein first count information included in the S-SFH is increased whenever the M2M dedicated ranging information are changed, wherein information indicating a change in the S-SFH, included in the P-SFH are not changed by update of the first count information. receiving a Primaty SuperFrame Header, P-SFH, and a Secondary SuperFrame Header, S-SFH; receiving an Advanced Air Interface-System Configuration Descriptor, AAI-SCD, message; and performing dedicated ranging using M2M dedicated ranging information included in the AAI-SCD message, wherein first count information included in the S-SFH is increased whenever the M2M dedicated ranging information are changed, wherein information indicating a change in the S-SFH, included in the P-SFH are not changed by update of the first count information.
A control arrangement for a variable-speed wind turbine constructed to fulfil the requirements of a wind class as defined by IEC 61400-1, comprising - a loading analysis module configured to analyse a number of environment values (10_1,..., 10_n) to establish whether the momentary wind turbine loading is lower than a loading threshold (L max) when the rotational speed of the aerodynamic rotor has reached its rated value (ω rated), which rated speed (ω rated) is associated with a level of output power (P 0) that is less than the rated output power (P rated) for that class of wind turbine; and - a speed boost module configured to determine a speed increment (ω inc) for the rotational speed of the aerodynamic rotor on the basis of an ideal power/speed trajectory (Tideal) for that wind turbine type if the wind turbine loading is lower than the loading threshold (L max) and to apply the speed increment (ω inc) to the rotational speed of the aerodynamic rotor. - a loading analysis module configured to analyse a number of environment values (10_1,..., 10_n) to establish whether the momentary wind turbine loading is lower than a loading threshold (L max) when the rotational speed of the aerodynamic rotor has reached its rated value (ω rated), which rated speed (ω rated) is associated with a level of output power (P 0) that is less than the rated output power (P rated) for that class of wind turbine; and - a speed boost module configured to determine a speed increment (ω inc) for the rotational speed of the aerodynamic rotor on the basis of an ideal power/speed trajectory (Tideal) for that wind turbine type if the wind turbine loading is lower than the loading threshold (L max) and to apply the speed increment (ω inc) to the rotational speed of the aerodynamic rotor.
Semiconductor element at least comprising a thermoelectric material and a first frame part, which are connected to one another in a force-locking manner, wherein the first frame part forms an electric current conductor and consists of a ferritic steel; characterized in that the ferritic steel comprises at least the following alloying constituents: • at most 0.025% by weight of carbon, • 21 to 24% by weight of chromium (Cr), • 0.7 to 1.5% by weight of molybdenum (Mo), • at most 1% by weight of niobium (Nb), • at most 78.3% by weight of iron (Fe). • at most 0.025% by weight of carbon, • 21 to 24% by weight of chromium (Cr), • 0.7 to 1.5% by weight of molybdenum (Mo), • at most 1% by weight of niobium (Nb), • at most 78.3% by weight of iron (Fe).
An infrared detector comprising: ▪ a sensitive retina capable of detecting a radiation in the wavelength range between 8 and 14 micrometers; and ▪ a package (12, 22, 24) containing the sensitive retina and comprising a window located opposite to the retina, said window comprising a substrate at least partially transparent in the wavelength range between 2 and 14 micrometers; and ▪ a set of optical filters formed on the window to attenuate an incident radiation on the retina in a wavelength range between 2 and 8 micrometers, characterized in that the set of filters is formed of: ▪ an optical filter formed on a first surface of the window and attenuating the incident radiation in a first interval of the wavelength range between 2 and 8 micrometers, and transmitting the radiation in the wavelength between 8 and 14 μm; said optical filter presenting a first limited interval of attenuation, i.e. a first interval of attenuation which width is inferior to the whole interval of range between 2 μm and 8 μm, and ▪ a periodic diffraction grating formed on a second surface of the window and attenuating by diffractive reflection the incident radiation in the wavelength range between 2 and 8 micrometers, different from the first interval, and transmitting the radiation in the wavelength range between 8 and 14 μm. ▪ a sensitive retina capable of detecting a radiation in the wavelength range between 8 and 14 micrometers; and ▪ a package (12, 22, 24) containing the sensitive retina and comprising a window located opposite to the retina, said window comprising a substrate at least partially transparent in the wavelength range between 2 and 14 micrometers; and ▪ a set of optical filters formed on the window to attenuate an incident radiation on the retina in a wavelength range between 2 and 8 micrometers, ▪ an optical filter formed on a first surface of the window and attenuating the incident radiation in a first interval of the wavelength range between 2 and 8 micrometers, and transmitting the radiation in the wavelength between 8 and 14 μm; said optical filter presenting a first limited interval of attenuation, i.e. a first interval of attenuation which width is inferior to the whole interval of range between 2 μm and 8 μm, and ▪ a periodic diffraction grating formed on a second surface of the window and attenuating by diffractive reflection the incident radiation in the wavelength range between 2 and 8 micrometers, different from the first interval, and transmitting the radiation in the wavelength range between 8 and 14 μm.
A hot forming device for producing glass containers from a glass tube, having a turntable (12, 23), which is rotatably mounted on an associated machine frame section (11, 31), wherein a plurality of holding chucks (16, 36) for holding workpieces (60, 61) is arranged in a manner such as to be distributed over the circumference of the turntable (12, 32), the turntable (12, 32) is coupled to a drive motor (21, 41) in order to drive a rotary motion of the turntable (12, 32), and the drive motor (21, 41) is designed as a direct drive, such that the turntable (12, 32) is connected to the associated machine frame section (11, 31) directly and without the interposition of a transmission; characterized in that the associated machine frame section is designed as a support (11, 31), which is fixedly arranged on a worktable (50, 50'), wherein the stator (23, 43) of the direct drive (21, 41) is arranged in an upper region of the associated support (11, 31), and the rotor (22, 42) of the direct drive (21, 41) is provided on the turntable (12, 32). a plurality of holding chucks (16, 36) for holding workpieces (60, 61) is arranged in a manner such as to be distributed over the circumference of the turntable (12, 32), the turntable (12, 32) is coupled to a drive motor (21, 41) in order to drive a rotary motion of the turntable (12, 32), and the drive motor (21, 41) is designed as a direct drive, such that the turntable (12, 32) is connected to the associated machine frame section (11, 31) directly and without the interposition of a transmission; characterized in that the associated machine frame section is designed as a support (11, 31), which is fixedly arranged on a worktable (50, 50'), wherein the stator (23, 43) of the direct drive (21, 41) is arranged in an upper region of the associated support (11, 31), and the rotor (22, 42) of the direct drive (21, 41) is provided on the turntable (12, 32).
A method at a wireless network operator system (204, 206), the method comprising: receiving an identifier of a mobile device; accessing, based on the identifier, a secret key held by the wireless network operator system, wherein the secret key is associated with the identifier; evaluating a key derivation function, KDF, to produce a first output value, wherein the KDF is a hash function and is evaluated at least in part on the secret key and on a plurality of input values including: a challenge value; and an output length variable that indicates a bit-length of a KDF output; obtaining a session key based on the first output value; producing a second output value by evaluating the KDF at least in part on a sequence value; and obtaining a message authentication code, MAC, based on the second output value. receiving an identifier of a mobile device; accessing, based on the identifier, a secret key held by the wireless network operator system, wherein the secret key is associated with the identifier; evaluating a key derivation function, KDF, to produce a first output value, wherein the KDF is a hash function and is evaluated at least in part on the secret key and on a plurality of input values including: a challenge value; and an output length variable that indicates a bit-length of a KDF output; a challenge value; and an output length variable that indicates a bit-length of a KDF output; obtaining a session key based on the first output value; producing a second output value by evaluating the KDF at least in part on a sequence value; and obtaining a message authentication code, MAC, based on the second output value.
A transmitter for a frequency domain duplexing, FDD, network system configured to: receive spectral information from one or more neighbor receiver nodes, the spectral information including a power at each of a plurality of transmit frequencies within a current band of operation; for each of the one or more neighbor receiver nodes, compute an energy per bit (E b) to noise power spectral density (N 0) ratio, SNR, at each of the plurality of transmit frequencies within the current band of operation, forming an SNR curve; for each of the plurality of transmit frequencies, identify minimum SNR values among SNR values on the SNR curves of the one or more neighbor receiver nodes, the minimum SNR values forming a composite minimum curve; based on the composite minimum curve, determine whether an SNR of a current transmit frequency is above a first threshold associated with a predetermined operating SNR, or a second threshold associated with a maximum of the composite minimum curve; and based on determining whether the SNR of the current transmit frequency is above the first threshold or the second threshold, determine whether a new transmit frequency is selected to replace the current transmit frequency. receive spectral information from one or more neighbor receiver nodes, the spectral information including a power at each of a plurality of transmit frequencies within a current band of operation; for each of the one or more neighbor receiver nodes, compute an energy per bit (E b) to noise power spectral density (N 0) ratio, SNR, at each of the plurality of transmit frequencies within the current band of operation, forming an SNR curve; for each of the plurality of transmit frequencies, identify minimum SNR values among SNR values on the SNR curves of the one or more neighbor receiver nodes, the minimum SNR values forming a composite minimum curve; based on the composite minimum curve, determine whether an SNR of a current transmit frequency is above a first threshold associated with a predetermined operating SNR, or a second threshold associated with a maximum of the composite minimum curve; and based on determining whether the SNR of the current transmit frequency is above the first threshold or the second threshold, determine whether a new transmit frequency is selected to replace the current transmit frequency.
The use of a nanomatrix for in-vitro polyclonal stimulation of T cells, the nanomatrix comprising a) a matrix of mobile polymer chains wherein said matrix is characterized by a non-solid surface, and b) attached to said matrix of mobile polymer chains one or more stimulatory agents which provide activation signals to the T cells; wherein the nanomatrix is 1 to 500 nm in size. a) a matrix of mobile polymer chains wherein said matrix is characterized by a non-solid surface, and b) attached to said matrix of mobile polymer chains one or more stimulatory agents which provide activation signals to the T cells;
A rechargeable socket, which is configured for charging a rechargeable battery of a wireless hair dryer; wherein the wireless hair dryer comprises a handle, the rechargeable socket comprises a pedestal and a rechargeable assembly arranged in the pedestal, a top of the pedestal is recessed to form a plug-in part, the rechargeable assembly comprises a circuit board and a rechargeable terminal electrically coupled to the circuit board, the rechargeable terminal passes through the plug-in part and extends to an inner cavity of the plug-in part; an end of the handle arranges a rechargeable connector, the end of the handle is insertable into the inner cavity of the plug-in part to allow the rechargeable terminal to be in contact with the rechargeable connector, and in process of the handle rotatable relative to the plug-in part, the rechargeable terminal is suitable to be kept in contact with the rechargeable connector; wherein the plug-in part comprises a plug-in duct coupled to a top of the rechargeable socket and a connecting plate arranged at a bottom of the plug-in duct, a plug-in space is formed by the plug-in duct and the connecting plate, the handle is receivable in the plug-in space, characterized in that the connecting plate defines a diversion hole, and the diversion hole is in liquid communication with an outside of the rechargeable socket.
A bone conduction device (100, 200, 300, 400, 500, 600, 700, 800, 900, 1000) for enhancing the hearing of a recipient, comprising: two or more sound input devices (202a, 202b) configured to receive sound and to generate a plurality of electrical signals (222a, 222b) representative of the received sound (207; a sound input element selection circuit that is configured to select a sound input device signal or signals to be used; an electronics module configured to operate in accordance with a plurality of control settings, wherein the electronics module includes a signal processor configured to convert said plurality of electrical signals (222a, 222b) into transducer drive signals, wherein said conversion is controlled by one or more of said control settings; a transducer configured to generate, based on the drive signals, vibration signals resulting in perception by the recipient of the received sound; and a user interface (212, 312, 818, 902) configured to receive a user input to select at least one of the plurality of control settings, including a control setting that turns on a direction finding algorithm for selecting between sound input devices, wherein said algorithm uses simultaneous phase information from each sound input device to estimate an angle-of-arrival of sound, and wherein the signal processor is adapted to use said algorithm to determine a sound input device output signal or a plurality of suitable sound input device output signals to be selected. two or more sound input devices (202a, 202b) configured to receive sound and to generate a plurality of electrical signals (222a, 222b) representative of the received sound (207; a sound input element selection circuit that is configured to select a sound input device signal or signals to be used; an electronics module configured to operate in accordance with a plurality of control settings, wherein the electronics module includes a signal processor configured to convert said plurality of electrical signals (222a, 222b) into transducer drive signals, wherein said conversion is controlled by one or more of said control settings; a transducer configured to generate, based on the drive signals, vibration signals resulting in perception by the recipient of the received sound; and a user interface (212, 312, 818, 902) configured to receive a user input to select at least one of the plurality of control settings, including a control setting that turns on a direction finding algorithm for selecting between sound input devices, wherein said algorithm uses simultaneous phase information from each sound input device to estimate an angle-of-arrival of sound, and wherein the signal processor is adapted to use said algorithm to determine a sound input device output signal or a plurality of suitable sound input device output signals to be selected.
A method of receiving information, performed by a terminal and comprising steps of: acquiring monitoring assistance information of a physical downlink control channel, PDCCH, used to schedule remaining minimum system information, RMSI, wherein the PDCCH is located in a Control Resource Set, CORESET; monitoring, according to the monitoring assistance information, the PDCCH used to schedule the RMSI, and receiving a corresponding RMSI, characterized in that, the monitoring assistance information comprises a length of a monitoring window of the PDCCH, and an offset of the monitoring window of the PDCCH. acquiring monitoring assistance information of a physical downlink control channel, PDCCH, used to schedule remaining minimum system information, RMSI, wherein the PDCCH is located in a Control Resource Set, CORESET; monitoring, according to the monitoring assistance information, the PDCCH used to schedule the RMSI, and receiving a corresponding RMSI, characterized in that, the monitoring assistance information comprises a length of a monitoring window of the PDCCH, and an offset of the monitoring window of the PDCCH.
Process for producing fluorinated olefins from a fluorinated material, the process comprising thermally decomposing the fluorinated material into fluoroolefins in a fluidized bed reactor in the presence of microwave irradiation and in the presence of a gaseous fluidised bed at a temperature of from about 400 °C to about 1,000 °C, wherein the gaseous fluidised bed comprises a gas selected from nitrogen, steam, a noble gas or a combination thereof and wherein microwave active particles are present in the gaseous fluidised bed and comprise at least one component selected from silicides, carbides, borides, nitrides or a combination thereof and wherein the fluorinated material is selected from fluoropolymers, fluoropolymer containing compositions, liquid or gaseous fluorinated organic compounds having a molecular weight of less than 1000 g/mol or combinations thereof.
A method of receiving an aperiodic channel state information reference signal, CSI-RS, by a user equipment, UE, from a base station, BS, in a wireless communication system, the method comprising: receiving information on a minimum slot interval configurable as a slot interval from a physical downlink control channel, PDCCH, reception slot to a physical downlink shared channel, PDSCH, reception slot and starting and length indicator value, SLIV, for indicating starting symbol index of a PDSCH in the PDSCH reception slot; receiving, in a first slot, a PDCCH for triggering aperiodic CSI; receiving, in a second slot, the first CSI-RS based on the PDCCH; and transmitting, in a third slot after the second slot, the aperiodic CSI based on the first CSI-RS, wherein the second slot is configured as a slot after the minimum slot interval from the first slot based on the information and wherein a starting symbol of the first CSI-RS is configured as a symbol indicated by the SLIV, and wherein, based on a second CSI-RS being received in a time period between the first slot and the second slot, a physical uplink shared channel, PUSCH, including not updated CSI report with a transport block is transmitted. receiving information on a minimum slot interval configurable as a slot interval from a physical downlink control channel, PDCCH, reception slot to a physical downlink shared channel, PDSCH, reception slot and starting and length indicator value, SLIV, for indicating starting symbol index of a PDSCH in the PDSCH reception slot; receiving, in a first slot, a PDCCH for triggering aperiodic CSI; receiving, in a second slot, the first CSI-RS based on the PDCCH; and transmitting, in a third slot after the second slot, the aperiodic CSI based on the first CSI-RS, wherein the second slot is configured as a slot after the minimum slot interval from the first slot based on the information and wherein a starting symbol of the first CSI-RS is configured as a symbol indicated by the SLIV, and wherein, based on a second CSI-RS being received in a time period between the first slot and the second slot, a physical uplink shared channel, PUSCH, including not updated CSI report with a transport block is transmitted.