mhurhangee/patent-ind-claim-en huggingface dataset:
A method for reporting location change of user equipment, UE, wherein the method comprises: receiving from a mobility management entity , by a session management function entity , location change information of the UE in a presence reporting area, PRA, an identity of the PRA, and an identity of a PRA set comprising the PRA, wherein the location change information of the UE in the PRA comprises information about entering or leaving the PRA by the UE; determining , by the session management function entity based on the identity of the PRA set and stored PRA subscription information, a subscription entity subscribing to a location change event of the UE in any PRA comprised in the PRA set, wherein the PRA subscription information comprises the identity of the PRA set and an identity of the subscription entity; and sending , by the session management function entity, the identity of the PRA and the location change information of the UE in the PRA to the subscription entity ; wherein the session management function entity comprises a packet data network gateway, or a session management function entity; wherein the subscription entity comprises a policy and charging rules function entity, an online charging system entity, or a policy function entity; wherein the mobility management entity comprises a mobility management entity, a serving general packet radio service support node, or a mobility management function entity. receiving from a mobility management entity , by a session management function entity , location change information of the UE in a presence reporting area, PRA, an identity of the PRA, and an identity of a PRA set comprising the PRA, wherein the location change information of the UE in the PRA comprises information about entering or leaving the PRA by the UE; determining , by the session management function entity based on the identity of the PRA set and stored PRA subscription information, a subscription entity subscribing to a location change event of the UE in any PRA comprised in the PRA set, wherein the PRA subscription information comprises the identity of the PRA set and an identity of the subscription entity; and sending , by the session management function entity, the identity of the PRA and the location change information of the UE in the PRA to the subscription entity ; wherein the session management function entity comprises a packet data network gateway, or a session management function entity; wherein the subscription entity comprises a policy and charging rules function entity, an online charging system entity, or a policy function entity; wherein the mobility management entity comprises a mobility management entity, a serving general packet radio service support node, or a mobility management function entity.
An apparatus comprising: a receiver configured to receive a first signal from a base unit for scheduling a transmission of first data, wherein the first data comprise a first plurality of code blocks and each code block of the first plurality of code blocks is independently decodable; and a transmitter configured to transmit the first plurality of code blocks of the first data as code block groups; wherein the receiver is further configured to receive a second signal from the base unit for scheduling a transmission of second data, the second data comprising a plurality of code block groups of the first data, each code block group of the plurality of code block groups comprising multiple code blocks, and the transmitter being further configured to transmit the second data; wherein the second signal further comprises a bitmap and each bit in the bitmap indicates a decoding result corresponding to a code block group of the first data; and either: i) the bitmap is determined by reinterpreting a field in the second signal for indicating modulation and coding scheme, transmit power adjustment, frequency resource allocation, or some combination thereof; or ii) a field for indicating modulation and coding scheme in the second signal is split into two parts with one part for indicating modulation and another part for indicating a code block group to be retransmitted. a receiver configured to receive a first signal from a base unit for scheduling a transmission of first data, wherein the first data comprise a first plurality of code blocks and each code block of the first plurality of code blocks is independently decodable; and a transmitter configured to transmit the first plurality of code blocks of the first data as code block groups; wherein the receiver is further configured to receive a second signal from the base unit for scheduling a transmission of second data, the second data comprising a plurality of code block groups of the first data, each code block group of the plurality of code block groups comprising multiple code blocks, and the transmitter being further configured to transmit the second data; wherein the second signal further comprises a bitmap and each bit in the bitmap indicates a decoding result corresponding to a code block group of the first data; and either: i) the bitmap is determined by reinterpreting a field in the second signal for indicating modulation and coding scheme, transmit power adjustment, frequency resource allocation, or some combination thereof; or ii) a field for indicating modulation and coding scheme in the second signal is split into two parts with one part for indicating modulation and another part for indicating a code block group to be retransmitted. i) the bitmap is determined by reinterpreting a field in the second signal for indicating modulation and coding scheme, transmit power adjustment, frequency resource allocation, or some combination thereof; or ii) a field for indicating modulation and coding scheme in the second signal is split into two parts with one part for indicating modulation and another part for indicating a code block group to be retransmitted.
An electrolyte support-type solid oxide fuel cell comprising: a fuel electrode; an electrolyte support; and an air electrode provided in a consecutive order, wherein the electrolyte support includes a gadolinium-doped ceria-based electrolyte layer and a yttria-stabilized zirconia-based electrolyte layer each provided on both surfaces of the gadolinium-doped ceria-based electrolyte layer, wherein the gadolinium-doped ceria-based electrolyte layer has a thickness of 500 μm or more and 1000 μm or less, wherein the yttria-stabilized zirconia-based electrolyte layers each has a thickness of 5 μm or more and 20 μm or less, and wherein a thickness ratio of the gadolinium-doped ceria-based electrolyte layer: the one yttria-stabilized zirconia-based electrolyte layer is 1: 0.001 or more and 1: 0.1 or less. a fuel electrode; an electrolyte support; and an air electrode provided in a consecutive order, wherein the electrolyte support includes a gadolinium-doped ceria-based electrolyte layer and a yttria-stabilized zirconia-based electrolyte layer each provided on both surfaces of the gadolinium-doped ceria-based electrolyte layer, wherein the gadolinium-doped ceria-based electrolyte layer has a thickness of 500 μm or more and 1000 μm or less, wherein the yttria-stabilized zirconia-based electrolyte layers each has a thickness of 5 μm or more and 20 μm or less, and wherein a thickness ratio of the gadolinium-doped ceria-based electrolyte layer: the one yttria-stabilized zirconia-based electrolyte layer is 1: 0.001 or more and 1: 0.1 or less.
Test arrangement for the fluorescence-based inspection of a laminate product composed of a plurality of layers , wherein one layer contains at least one fluorophore with an excitation spectrum and an emission spectrum, wherein the test arrangement comprises - a beam source device for generating first electromagnetic radiation in a first wavelength range containing the excitation spectrum of the at least one fluorophore , wherein the first beam source device is in the form of a UV lamp, UV light fitting, black-light lamp or black-light light fitting and thus the first electromagnetic radiation is UV-A radiation, and second electromagnetic radiation in a second wavelength range containing the emission spectrum of the at least one fluorophore , - a capturing device for generating images of an inspection region in which the product can be arranged, and - an image data processing device for processing the images , and is configured to capture, by means of the capturing device , at least one fluorescence image of the inspection region irradiated with the first electromagnetic radiation and to capture, by means of the capturing device , at least one reference image of the inspection region irradiated with the second electromagnetic radiation , and wherein the image data processing device is configured to generate a correction image by differencing the at least one fluorescence image and the at least one reference image . - a beam source device for generating first electromagnetic radiation in a first wavelength range containing the excitation spectrum of the at least one fluorophore , wherein the first beam source device is in the form of a UV lamp, UV light fitting, black-light lamp or black-light light fitting and thus the first electromagnetic radiation is UV-A radiation, and second electromagnetic radiation in a second wavelength range containing the emission spectrum of the at least one fluorophore , - a capturing device for generating images of an inspection region in which the product can be arranged, and - an image data processing device for processing the images ,
Device (10; 20; 30; 40; 50; 60; 70; 90; 100; 130) comprising: a housing ; and a multi-aperture imaging device (11; 140; 150; 180) comprising: an array of optical channels (16a-d; 16N) arranged next to one another; and beam-deflecting means for deflecting an optical path (17a-d) of the optical channels (16a-d; 16N); wherein external surfaces of the housing enclose a housing volume in a first operating state of the device, wherein the beam-deflecting means , in the first operating state of the device, comprises a first position within the housing volume , wherein the beam-deflecting means , in a second operating state of the device, comprises a second position where the beam-deflecting means is arranged at least partly outside the housing volume , characterized in that in a transition from the first operating state to the second operating state, optics (64a-b) of the optical channels (16a-d; 16N) and the image sensor are moved together with the beam-deflecting means in a translatory manner. a housing ; and a multi-aperture imaging device (11; 140; 150; 180) comprising: an array of optical channels (16a-d; 16N) arranged next to one another; and beam-deflecting means for deflecting an optical path (17a-d) of the optical channels (16a-d; 16N); an array of optical channels (16a-d; 16N) arranged next to one another; and beam-deflecting means for deflecting an optical path (17a-d) of the optical channels (16a-d; 16N); wherein external surfaces of the housing enclose a housing volume in a first operating state of the device, wherein the beam-deflecting means , in the first operating state of the device, comprises a first position within the housing volume , wherein the beam-deflecting means , in a second operating state of the device, comprises a second position where the beam-deflecting means is arranged at least partly outside the housing volume , characterized in that in a transition from the first operating state to the second operating state, optics (64a-b) of the optical channels (16a-d; 16N) and the image sensor are moved together with the beam-deflecting means in a translatory manner.
Sliding members that slide against each other, wherein a sliding portion of one sliding member is formed from hydrogenated amorphous carbon doped with chrome, and a sliding portion of another sliding member is formed from a copper alloy or an aluminum alloy.
Conversion kit for a light commercial vehicle comprising a suspension having a torsion bar; the kit comprising a pneumatic assembly for a suspension of a light commercial vehicle comprising an adjustable air spring having a first end with a first adjustable position; a transmission system operatively connected to the air spring so as to take a second position, preferably angular, based on the position of the first end of the air spring ; the transmission system being configured to be connected to the suspension of the vehicle so as to act on a configuration of the suspension based on the first position of the air spring ; wherein the transmission system is configured to be connected to the suspension instead of the torsion bar, in particular having a coupling portion of the transmission system with a dimension equal to a dimension of a coupling portion of the torsion bar to be removed, said dimension preferably being a diameter.
A method of operating a network node operating according to a carrier aggregation scheme, the method comprising: obtaining a list of potential secondary cells for a wireless device ; blindly selecting a secondary cell for the wireless device from the list of potential secondary cells ; configuring the wireless device with the selected secondary cell; after configuring the wireless device with the selected secondary cell, receiving an indication from the wireless device that the selected secondary cell is not an acceptable secondary cell for the wireless device ; in response to receiving the indication from the wireless device that the selected secondary cell is not an acceptable secondary cell for the wireless device , monitoring for an indication from the wireless device that a neighboring cell of the selected secondary cell is better than the selected secondary cell; if the indication that the neighboring cell of the selected secondary cell is better than the selected secondary cell is not received , blindly selecting a new secondary cell for the wireless device from the list of potential secondary cells for the wireless device , and configuring the wireless device with the new secondary cell selected for the wireless device . obtaining a list of potential secondary cells for a wireless device ; blindly selecting a secondary cell for the wireless device from the list of potential secondary cells ; configuring the wireless device with the selected secondary cell; after configuring the wireless device with the selected secondary cell, receiving an indication from the wireless device that the selected secondary cell is not an acceptable secondary cell for the wireless device ; in response to receiving the indication from the wireless device that the selected secondary cell is not an acceptable secondary cell for the wireless device , monitoring for an indication from the wireless device that a neighboring cell of the selected secondary cell is better than the selected secondary cell; if the indication that the neighboring cell of the selected secondary cell is better than the selected secondary cell is not received , blindly selecting a new secondary cell for the wireless device from the list of potential secondary cells for the wireless device , and configuring the wireless device with the new secondary cell selected for the wireless device .
A camera actuator comprising: a housing ; a mover disposed in the housing and including a boss, which protrudes toward the housing , on one surface thereof; and a driving unit that is disposed in the housing and rotates the mover in a first direction (X-axis direction) or a second direction (Y-axis direction) perpendicular to the first direction (X-axis direction), wherein the boss includes a first boss (PR1) disposed on the one surface, a second boss (PR2) spaced apart from the first boss (PR1), and a third boss (PR3) having a larger separation distance from the first boss (PR1) than from the second boss (PR2), the housing includes, in an inner surface corresponding to the one surface, a groove on which the first boss (PR1) is seated, a first hole (1215h1) through which the second boss (PR2) passes, and a second hole (1215h2) through which the third boss (PR3) passes, a side surface of the second boss (PR2) is spaced apart from the first hole (1215h1), and the housing includes a protrusion disposed on a side surface of the second hole and extending toward the third boss (PR3). a housing ; a mover disposed in the housing and including a boss, which protrudes toward the housing , on one surface thereof; and a driving unit that is disposed in the housing and rotates the mover in a first direction (X-axis direction) or a second direction (Y-axis direction) perpendicular to the first direction (X-axis direction), wherein the boss includes a first boss (PR1) disposed on the one surface, a second boss (PR2) spaced apart from the first boss (PR1), and a third boss (PR3) having a larger separation distance from the first boss (PR1) than from the second boss (PR2), the housing includes, in an inner surface corresponding to the one surface, a groove on which the first boss (PR1) is seated, a first hole (1215h1) through which the second boss (PR2) passes, and a second hole (1215h2) through which the third boss (PR3) passes, a side surface of the second boss (PR2) is spaced apart from the first hole (1215h1), and the housing includes a protrusion disposed on a side surface of the second hole and extending toward the third boss (PR3).
Single channel receiver comprising: - an input terminal configured to receive an analog input signal, - an RF mixer configured to down-mix the analog input signal to an intermediate frequency by use of a phase- and/or frequency-corrected oscillator frequency signal and to shift complex-valued information contained in the analog input signal only to the real part or only to the imaginary part to obtain an intermediate real-valued analog signal, - an analog-to-digital-converter configured to convert the intermediate analog signal into an intermediate digital signal, - a demodulator configured to demodulate the intermediate digital signal into a digital output signal, - a phase tracking loop configured to detect zero-crossings in the intermediate digital signal to obtain phase error information representing a phase error in the intermediate digital signal, wherein the phase tracking loop comprises a zero-crossing detector configured to detect the timing of zero-crossings between two consecutive symbols of the intermediate digital signal, and - an oscillator configured to generate the phase- and/or frequency-corrected oscillator frequency signal by use of the phase error information. - an input terminal configured to receive an analog input signal, - an RF mixer configured to down-mix the analog input signal to an intermediate frequency by use of a phase- and/or frequency-corrected oscillator frequency signal and to shift complex-valued information contained in the analog input signal only to the real part or only to the imaginary part to obtain an intermediate real-valued analog signal, - an analog-to-digital-converter configured to convert the intermediate analog signal into an intermediate digital signal, - a demodulator configured to demodulate the intermediate digital signal into a digital output signal, - a phase tracking loop configured to detect zero-crossings in the intermediate digital signal to obtain phase error information representing a phase error in the intermediate digital signal, wherein the phase tracking loop comprises a zero-crossing detector configured to detect the timing of zero-crossings between two consecutive symbols of the intermediate digital signal, and - an oscillator configured to generate the phase- and/or frequency-corrected oscillator frequency signal by use of the phase error information.
A cooling device for a battery that is mounted in a vehicle, the cooling device comprising: a cooling fan that is configured to suck air in a vehicle interior, and to blow the sucked air to the battery ; an intake air temperature sensor that is configured to detect a temperature of the air sucked by the cooling fan (Tfan); and characterised by an electronic control unit that is configured (i) to control the cooling fan , and (ii) to prohibit the cooling fan from being operated when a detected value of the intake air temperature sensor (Tfan) is lower than a first temperature (Tfan1) and the battery temperature (Tb) is lower than a third temperature (Tb2) and a difference between the actual rotational speed of the cooling fan (Nfan) and the target rotational speed (Nfan_tag) is not outside a range (ΔN) that is determined in advance. a cooling fan that is configured to suck air in a vehicle interior, and to blow the sucked air to the battery ; an intake air temperature sensor that is configured to detect a temperature of the air sucked by the cooling fan (Tfan); and characterised by an electronic control unit that is configured (i) to control the cooling fan , and (ii) to prohibit the cooling fan from being operated when a detected value of the intake air temperature sensor (Tfan) is lower than a first temperature (Tfan1) and the battery temperature (Tb) is lower than a third temperature (Tb2) and a difference between the actual rotational speed of the cooling fan (Nfan) and the target rotational speed (Nfan_tag) is not outside a range (ΔN) that is determined in advance.
A prosthetic valve delivery assembly (100; 200) comprising: a delivery apparatus comprising a shaft ; a prosthetic valve mounted in a radially compressed configuration around a distal portion of the shaft ; and the delivery apparatus further comprising an expansion assist device (114; 214) mounted on the shaft ; wherein the expansion assist device (114; 214) is independently radially expandable and compressible relative to the prosthetic valve between a radially compressed state and a radially expanded state; and wherein the prosthetic valve is radially expandable by applying an axially directed force against the prosthetic valve in a proximal or distal direction through contact between the prosthetic valve and the expansion assist device (114; 214) when the expansion assist device (114; 214) is in the radially expanded state. a delivery apparatus comprising a shaft ; a prosthetic valve mounted in a radially compressed configuration around a distal portion of the shaft ; and the delivery apparatus further comprising an expansion assist device (114; 214) mounted on the shaft ; wherein the expansion assist device (114; 214) is independently radially expandable and compressible relative to the prosthetic valve between a radially compressed state and a radially expanded state; and wherein the prosthetic valve is radially expandable by applying an axially directed force against the prosthetic valve in a proximal or distal direction through contact between the prosthetic valve and the expansion assist device (114; 214) when the expansion assist device (114; 214) is in the radially expanded state.