mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal, comprising: a primary battery and a secondary battery; a display; and a controller configured to: detect a state of charge of the secondary battery when the mobile terminal is changed to a battery swap mode while executing content; and select a content operating mode from a plurality of operating modes based on the detected state of charge of the secondary battery; wherein the battery swap mode allows for the primary battery to be uncoupled from the mobile terminal, characterised in that the controller is further configured to: maintain execution of the content when the selected operating mode corresponds to a third content operating mode, wherein the third content operating mode corresponds to maintaining the running of the currently run content. a primary battery and a secondary battery; a display; and a controller configured to: detect a state of charge of the secondary battery when the mobile terminal is changed to a battery swap mode while executing content; and select a content operating mode from a plurality of operating modes based on the detected state of charge of the secondary battery; detect a state of charge of the secondary battery when the mobile terminal is changed to a battery swap mode while executing content; and select a content operating mode from a plurality of operating modes based on the detected state of charge of the secondary battery; wherein the battery swap mode allows for the primary battery to be uncoupled from the mobile terminal, characterised in that the controller is further configured to: maintain execution of the content when the selected operating mode corresponds to a third content operating mode, wherein the third content operating mode corresponds to maintaining the running of the currently run content.
Solenoid valve, in particular quantity control valve of a high-pressure fuel pump, having a pole core and an axially movable armature, an end side of the pole core forming a stop for the armature, characterized in that the pole core is made from a ferritic material, in particular a stainless ferritic steel, and that end side of the pole core which forms the stop is present on a section which is produced by way of plastic cold working.
Fastening device for the fastening of an exhaust-gas turbocharger to a bracket, comprising a fastening foot with a fastening bore and comprising fastening means (18, 19) guided loosely in said fastening bore, characterized in that, between a contact surface of the fastening foot and a contact surface of the bracket, there is arranged a slide shoe, which slide shoe forms, together with the contact surface of the fastening foot, a slide surface along which the fastening foot can be moved relative to the slide shoe and the fastening means (18, 19), and which slide shoe is connected in positively locking fashion to the bracket by way of the fastening means (18, 19), such that fastening means (18, 19), slide shoe and bracket cannot be moved relative to one another, such that the only permitted displacement of the slide shoe is on the contact surface of the fastening foot, and no displacement of the slide shoe on the contact surface of the bracket is possible.
A method for parsing an incomplete response to a media file request, comprising: receiving an incomplete version of a media file in a response message including an indication that the response message includes the incomplete version of the media file and an indication of an access position for the incomplete version of the media file, wherein the access position identifies a byte at which to begin parsing the incomplete version of the media file to decode the incomplete version of the media file; determining whether the byte corresponding to the access position is received in the incomplete version of the media file; and parsing the incomplete version of the media file beginning at the byte corresponding to the access position in response to determining that the byte corresponding to the access position is received in the incomplete version of the media file. receiving an incomplete version of a media file in a response message including an indication that the response message includes the incomplete version of the media file and an indication of an access position for the incomplete version of the media file, wherein the access position identifies a byte at which to begin parsing the incomplete version of the media file to decode the incomplete version of the media file; determining whether the byte corresponding to the access position is received in the incomplete version of the media file; and parsing the incomplete version of the media file beginning at the byte corresponding to the access position in response to determining that the byte corresponding to the access position is received in the incomplete version of the media file.
A server which transmits streaming data according to MPEG-DASH standard, the server comprising: a receiver which receives an M PD request and a segment request from a client; and a transmitter which transmits, by a push, an MPD specified in the MPD request and a segment specified in the segment request to the client, the M PD request and the segment request being received by the receiver, wherein the MPD request contains information requesting transmission of an initialization segment by the push, and the transmitter transmits the initialization segment by the push, wherein the MPD request includes a push directive indicating the server to automatically select and push segments over the course of the total media duration; the server automatically selects and pushes segments other than the segment specified in the segment request over the course of the total media duration, wherein the server estimates a throughput, based on acknowledgement numbers contained in acknowledgement packets transmitted from the client to the sever during a TCP/IP connection, the server estimates the throughput based on the acknowledgement numbers, by measuring a time arrival of the acknowledgement packets, representations of the streaming data having different image qualities and different bit rates are switched based on the estimated throughput. a receiver which receives an M PD request and a segment request from a client; and a transmitter which transmits, by a push, an MPD specified in the MPD request and a segment specified in the segment request to the client, the M PD request and the segment request being received by the receiver, wherein the MPD request contains information requesting transmission of an initialization segment by the push, and the transmitter transmits the initialization segment by the push, wherein the MPD request includes a push directive indicating the server to automatically select and push segments over the course of the total media duration; the server automatically selects and pushes segments other than the segment specified in the segment request over the course of the total media duration, wherein the server estimates a throughput, based on acknowledgement numbers contained in acknowledgement packets transmitted from the client to the sever during a TCP/IP connection, the server estimates the throughput based on the acknowledgement numbers, by measuring a time arrival of the acknowledgement packets, representations of the streaming data having different image qualities and different bit rates are switched based on the estimated throughput.
A user equipment for use in a radio communication system comprising: a receiver for receiving control signalling that includes New Data information and modulation and coding scheme information, and characterized by a processor for releasing a semi-persistent resource allocation when a predetermined combination of the New Data information and the modulation and coding scheme information is received, wherein the predetermined combination includes the New Data information being zero and the modulation and coding scheme information including an index of 11111 in binary format that indicates no transport block size information. a receiver for receiving control signalling that includes New Data information and modulation and coding scheme information, and characterized by a processor for releasing a semi-persistent resource allocation when a predetermined combination of the New Data information and the modulation and coding scheme information is received, wherein the predetermined combination includes the New Data information being zero and the modulation and coding scheme information including an index of 11111 in binary format that indicates no transport block size information.
A ion current measurement apparatus comprising a detection section and a control section, the detection section including first and second conductors (2, 3) and a substrate which is formed of ceramic and in which the first and second conductors (2, 3) are separately embedded and held, one end of the second conductor being disposed near the forward end of the first conductor, the detection section being adapted for attachment to an internal combustion engine such that the substrate is exposed to a combustion chamber of the internal combustion engine in which ions are generated as a result of combustion of fuel; the control section comprising: a measurement section (52, S610, S620) adapted to measure a value of current (lion) flowing through the second conductor as an ion current originating from the generated ions, an obtainment section adapted to obtain a first substrate electrical resistance (R 11) of the substrate between the first conductor and the second conductor based on a potential difference between the first conductor and the second conductor and an electrical current flowing between the first conductor and the second conductor; and a correction section (S640, S650) adapted to judge whether the first substrate resistance (R 11) is greater than a predetermined value, and in the case where the first substrate resistance (R 11) is greater than the predetermined value a second substrate resistance (R 12) is calculated based on the first substrate resistance (R 11), the second substrate resistance (R 12) being the electrical resistance of the substrate between the second conductor and the combustion chamber of the internal combustion engine in which ions are generated as a result of combustion of fuel, and to correct the current value (lion), measured by the measurement section (S610, S620), based on the second substrate resistance (R 12). a measurement section (52, S610, S620) adapted to measure a value of current (lion) flowing through the second conductor as an ion current originating from the generated ions, an obtainment section adapted to obtain a first substrate electrical resistance (R 11) of the substrate between the first conductor and the second conductor based on a potential difference between the first conductor and the second conductor and an electrical current flowing between the first conductor and the second conductor; and a correction section (S640, S650) adapted to judge whether the first substrate resistance (R 11) is greater than a predetermined value, and in the case where the first substrate resistance (R 11) is greater than the predetermined value a second substrate resistance (R 12) is calculated based on the first substrate resistance (R 11), the second substrate resistance (R 12) being the electrical resistance of the substrate between the second conductor and the combustion chamber of the internal combustion engine in which ions are generated as a result of combustion of fuel, and to correct the current value (lion), measured by the measurement section (S610, S620), based on the second substrate resistance (R 12).
Disc brake, in particular for a utility vehicle, having a brake calliper designed as a floating calliper engaging over a brake disc, the brake calliper being fastened to a component fixed in a stationary manner to the axle, in particular to a fixed-position brake carrier, a brake application means, with which, in the event of a braking operation, a corresponding, actuating-side brake pad can be pressed against the brake disc, and also having a return device that has a return element, wherein the brake calliper can be brought back into a starting position by the return device after displacement and release of the brake in a braking operation, characterised in that the return device is held on the side, lying opposite to the brake application means, of the brake disc in the brake calliper.
A cation exchange membrane (1, 20) to be used for an electrolytic cell, which has a laminate structure comprising a first layer containing a fluoropolymer having sulfonic groups and a second layer containing a fluoropolymer having carboxylic groups and adjacent to the first layer, and which has a rectangular shape with a constant thickness; wherein the cation exchange membrane (1, 20) has an attachment region along one or each of opposed sides of the cation exchange membrane (1, 20) and a main region other than the attachment region, or the cation exchange membrane (1, 20) further has a boundary region between the attachment region and the main region; the value of the ratio (the thickness of the second layer) / (the total thickness of the first and second layers) in the attachment region is larger than the value of the ratio (the thickness of the second layer) / the total thickness of the first and second layers) in the main region; and when the cation exchange membrane (1, 20) has the boundary region, the boundary region is a region where the value of the ratio changes from the attachment region toward the main region.
A compound selected from the group consisting of compound number 18, 27, 84, 114, 133, 134, 136, 148, 154, 165, and 167: or a pharmaceutically acceptable salt thereof, for use in treating, preventing, or slowing the progression of portal hypertension.
Light emitting diode with - one or more optoelectronic semiconductor chips, and - at least one scattering body having a radiation permeable matrix material and scattering particles of a particle material embedded therein, and being arranged downstream of at least one of the semiconductor chips, wherein a refractive index difference between the matrix material and the particle material changes together with a temperature change, and the refractive index difference between the matrix material and the particle material at a temperature of 300 K is at most 0.15, characterized in that - in a temperature range of 300 K to 375 K inclusively, the refractive index difference between the matrix material and the particle material decreases with rising temperature, - at at least a temperature in a temperature range 375 K to 450 K inclusively, an average scattering cross section of the scattering particles for radiation generated under operation in the at least one semiconductor chip is at most 25 % of the average scattering cross section of the scattering particles at a temperature of 300 K, - the matrix material contains a phenilyzed silicone, - the particle material is calcium fluoride, barium fluoride, lithium fluoride or magnesium fluoride, and - an average diameter of the scattering particles is at least 1.5 μm and at most 5 μm. - one or more optoelectronic semiconductor chips, and - at least one scattering body having a radiation permeable matrix material and scattering particles of a particle material embedded therein, and being arranged downstream of at least one of the semiconductor chips, wherein a refractive index difference between the matrix material and the particle material changes together with a temperature change, and the refractive index difference between the matrix material and the particle material at a temperature of 300 K is at most 0.15, characterized in that - in a temperature range of 300 K to 375 K inclusively, the refractive index difference between the matrix material and the particle material decreases with rising temperature, - at at least a temperature in a temperature range 375 K to 450 K inclusively, an average scattering cross section of the scattering particles for radiation generated under operation in the at least one semiconductor chip is at most 25 % of the average scattering cross section of the scattering particles at a temperature of 300 K, - the matrix material contains a phenilyzed silicone, - the particle material is calcium fluoride, barium fluoride, lithium fluoride or magnesium fluoride, and - an average diameter of the scattering particles is at least 1.5 μm and at most 5 μm.
A method for controlling a User Equipment, UE, the method comprising: receiving, by a Mobility Management Entity, MME, a Device to Device, D2D, request message of a UE transmitted by an evolved Node B, eNB, determining requested D2D features according to the D2D request message, determining acceptable one of the requested D2D features and transmitting the accepted D2D feature to the eNB; and judging, by the eNB, whether to accept the D2D request of the UE upon reception of the accepted D2D feature returned by the MME, and if so, then configuring by the eNB, resource and instructing the UE to perform configuration of the accepted D2D feature; otherwise, rejecting, by the eNB, the D2D request of the UE. receiving, by a Mobility Management Entity, MME, a Device to Device, D2D, request message of a UE transmitted by an evolved Node B, eNB, determining requested D2D features according to the D2D request message, determining acceptable one of the requested D2D features and transmitting the accepted D2D feature to the eNB; and judging, by the eNB, whether to accept the D2D request of the UE upon reception of the accepted D2D feature returned by the MME, and if so, then configuring by the eNB, resource and instructing the UE to perform configuration of the accepted D2D feature; otherwise, rejecting, by the eNB, the D2D request of the UE.
A security feature, containing at least one luminescence means on and/or in a product carrier (110, 110'), wherein the security feature furthermore additionally contains at least one absorptive spectral filter means in and/or on the product carrier (110, 110') for luminescence radiation emitted by the at least one luminescence means, wherein the security feature is formed by a pattern having a plurality of pattern elements (280, 280'), and the pattern elements (280, 280') are formed by the at least one luminescence means and the at least one absorptive spectral filter means, characterized in that luminescence pattern elements, which are formed by the at least one luminescence means, and absorptive pattern elements (210, 210'), which are formed by the at least one absorptive spectral filter means, are in each case configured to be substantially the same size and are arranged relative to one another in accurate alignment.
A method for radio link synchronization and power control in CELL_FACH state, the method comprising: transmitting a random access channel, RACH, preamble; receiving an acquisition indicator in response to the RACH preamble and obtaining an index to an enhanced dedicated channel, E-DCH, resource; receiving a fractional dedicated physical channel, F-DPCH, according to a F-DPCH reception starting time, wherein the F-DPCH reception starting time is based on a relative F-DPCH timing offset parameter and timing of an acquisition indicator channel, AICH, access slot including the acquisition indicator; and determining a dedicated physical control channel, DPCCH, transmission starting time, wherein the DPCCH transmission starting time and the F-DPCH reception starting time are offset by a predetermined offset. transmitting a random access channel, RACH, preamble; receiving an acquisition indicator in response to the RACH preamble and obtaining an index to an enhanced dedicated channel, E-DCH, resource; receiving a fractional dedicated physical channel, F-DPCH, according to a F-DPCH reception starting time, wherein the F-DPCH reception starting time is based on a relative F-DPCH timing offset parameter and timing of an acquisition indicator channel, AICH, access slot including the acquisition indicator; and determining a dedicated physical control channel, DPCCH, transmission starting time, wherein the DPCCH transmission starting time and the F-DPCH reception starting time are offset by a predetermined offset.
An ex vivo method of preparing T-cells for immunotherapy against pathological cells comprising the step of: (a) Genetically inactivating a gene in a T-cell, which is involved in the expression or presentation of an antigen marker, said antigen marker being present both on the surface of said T-cell and the pathological cell; (b) Expressing into said T-cell a transgene encoding a chimeric antigen receptor directed against said antigen marker present at the surface of said pathological cell. (a) Genetically inactivating a gene in a T-cell, which is involved in the expression or presentation of an antigen marker, said antigen marker being present both on the surface of said T-cell and the pathological cell; (b) Expressing into said T-cell a transgene encoding a chimeric antigen receptor directed against said antigen marker present at the surface of said pathological cell.
A computer-implemented signal lamp recognition method, comprising: performing frame division on a video to obtain a plurality of video frames on which the signal lamp recognition is required to be performed, wherein each video frame shows a real signal lamp and/or a simulated signal lamp; performing signal lamp recognition on the plurality of video frames by using a signal lamp recognition model to obtain state information of the real signal lamp and state information of the simulated signal lamp, wherein the signal lamp recognition model is a trained model, a training sample image of the signal lamp recognition model shows a signal lamp and has been labeled with a signal lamp category, and the signal lamp category indicates whether the signal lamp is a real signal lamp or a simulated signal lamp, the training sample image has been further labeled with state information of the signal lamp, and the state information indicates a red light state, a green light state, or a yellow light state; and determining (S 102) a time delay between the real signal lamp and the simulated signal lamp according to the state information of the real signal lamp and the state information of the simulated signal lamp, wherein the real signal lamp comprises a roadside device, the simulated signal lamp comprises a simulated signal lamp of a networking device, the networking device is interconnected with the roadside device to obtain the state information of the real signal lamp, and the state information of the simulated signal lamp is updated based on the state information of the real signal lamp. performing frame division on a video to obtain a plurality of video frames on which the signal lamp recognition is required to be performed, wherein each video frame shows a real signal lamp and/or a simulated signal lamp; performing signal lamp recognition on the plurality of video frames by using a signal lamp recognition model to obtain state information of the real signal lamp and state information of the simulated signal lamp, wherein the signal lamp recognition model is a trained model, a training sample image of the signal lamp recognition model shows a signal lamp and has been labeled with a signal lamp category, and the signal lamp category indicates whether the signal lamp is a real signal lamp or a simulated signal lamp, the training sample image has been further labeled with state information of the signal lamp, and the state information indicates a red light state, a green light state, or a yellow light state; and determining (S 102) a time delay between the real signal lamp and the simulated signal lamp according to the state information of the real signal lamp and the state information of the simulated signal lamp, wherein the real signal lamp comprises a roadside device, the simulated signal lamp comprises a simulated signal lamp of a networking device, the networking device is interconnected with the roadside device to obtain the state information of the real signal lamp, and the state information of the simulated signal lamp is updated based on the state information of the real signal lamp.