mhurhangee/ep-ind-claims huggingface dataset:
A method that facilitates accurate decoding of a Physical Downlink Control Channel, PDCCH transmission by a user equipment, UE, comprising: determining an aggregation level to be used for the PDCCH transmission to the UE; mapping uplink ACK/NACK resources for the UE utilizing a rate matching offset determined based on the aggregation level; generating resource assignment messages to be transmitted in the PDCCH transmission comprising the offset; and transmitting the PDCCH transmission. determining an aggregation level to be used for the PDCCH transmission to the UE; mapping uplink ACK/NACK resources for the UE utilizing a rate matching offset determined based on the aggregation level; generating resource assignment messages to be transmitted in the PDCCH transmission comprising the offset; and transmitting the PDCCH transmission.
A method of removing fluid from a well bore having a longitudinal axis and riser, the method comprising the following steps: (a) attaching a swivel to a drill string, the swivel including a mandrel and a sleeve, the sleeve being rotatably connected to the mandrel; (b) inserting the swivel into the riser, the riser being fluidly connected to the well bore, the riser and well bore being fluidly connected to an annular blow-out preventer, having an annular seal, the annular blow-out preventer being located at a first level, the riser and well bore being at least partially filled with a first fluid, the first fluid being at a level in the riser which is above the first level; (c) detachably connecting the annular seal of the annular blow-out preventer to the sleeve thereby separating the first fluid into an upper section of the first fluid, located above the first level, and a lower section of the first fluid, located below the first level; (d) displacing a portion of the lower section of the first fluid; and (e) displacing a portion of the upper section of the first fluid; wherein in step "a" the sleeve includes at least one catch (2326,2328; 3326,3328) for an annular blow-out preventer and wherein the catch (2326,2328; 3326,3328), after contacting the annular seal, restricts longitudinal movement of the sleeve relative to the annular blow-out preventer; characterized in that: the at least one catch (2326,2328; 3326,3328) has at least one portion that is shaped to act as a centering device for the sleeve if the sleeve is not centered when passing through the annular blow-out preventer, and a catch base (2331; 3330) facing away from the portion that is shaped to act as a centering device and being substantially perpendicular to the sleeve, wherein contact between the catch base (2331; 3330) and the annular seal restricts longitudinal movement of the sleeve relative to the annular blowout preventer where high differential pressures exist above and/or below the annular blowout preventer tending to force the sleeve in a longitudinal direction. (a) attaching a swivel to a drill string, the swivel including a mandrel and a sleeve, the sleeve being rotatably connected to the mandrel; (b) inserting the swivel into the riser, the riser being fluidly connected to the well bore, the riser and well bore being fluidly connected to an annular blow-out preventer, having an annular seal, the annular blow-out preventer being located at a first level, the riser and well bore being at least partially filled with a first fluid, the first fluid being at a level in the riser which is above the first level; (c) detachably connecting the annular seal of the annular blow-out preventer to the sleeve thereby separating the first fluid into an upper section of the first fluid, located above the first level, and a lower section of the first fluid, located below the first level; (d) displacing a portion of the lower section of the first fluid; and (e) displacing a portion of the upper section of the first fluid;
Method for allocating at least one digital resource (10, 11, 14) of a local, modular computer network that has at least two computer modules (T1, T2) to each of which a resource value for a digital resource (10, 11, 14) is assigned, depending on an input dataset that has a resource request having a required value, by way of a control unit that executes the following method steps: a) accessing the input dataset and reading the input dataset, b) retrieving the resource value from each computer module (T1, T2) that is part of the local, modular computer network, wherein the resource value represents an available proportion of the digital resource (10, 11, 14) of the respective computer module (T1, T2), c) comparing the required value with at least one of the retrieved resource values, and d) allocating at least one of the digital resources (10, 11, 14) to the request depending on a result of the comparison, characterized by the steps of: e) automatically integrating a mobile computer module into the local, modular computer network if the mobile computer module enters a spatial area that is assigned to the local, modular computer network, and removing the mobile computer module if the mobile computer module leaves the spatial area, and f) after the mobile computer module has been automatically integrated into or removed from the local, modular computer network, the amended local, modular computer network is taken into account in the allocation of the digital resources. a) accessing the input dataset and reading the input dataset, b) retrieving the resource value from each computer module (T1, T2) that is part of the local, modular computer network, wherein the resource value represents an available proportion of the digital resource (10, 11, 14) of the respective computer module (T1, T2), c) comparing the required value with at least one of the retrieved resource values, and d) allocating at least one of the digital resources (10, 11, 14) to the request depending on a result of the comparison, characterized by the steps of: e) automatically integrating a mobile computer module into the local, modular computer network if the mobile computer module enters a spatial area that is assigned to the local, modular computer network, and removing the mobile computer module if the mobile computer module leaves the spatial area, and f) after the mobile computer module has been automatically integrated into or removed from the local, modular computer network, the amended local, modular computer network is taken into account in the allocation of the digital resources.
A coding method, wherein the method comprises: obtaining, by a sending device, positions of information bits, positions of fixed bits, and positions of assistant bits, wherein the assistant bits comprise at least one of the following bits: cyclic redundancy check, CRC, bits, parity check, PC, bits, and hash bits; allocating, by the sending device, the information bits, the fixed bits, and the assistant bits in a to-be-coded sequence based on the positions of the information bits, the positions of the fixed bits, and the positions of the assistant bits; obtaining, by the sending device, a scrambling sequence, and scrambling bits in a to-be-scrambled bit set based on the scrambling sequence to obtain a scrambled sequence, wherein the scrambling sequence is a radio network temporary identifier, RNTI, sequence of the sending device, and wherein the to-be-scrambled bit set comprises a set comprising the at least one of the fixed bits before an information bit; performing (S 104), by the sending device, polar coding on the scrambled sequence to obtain a coded sequence; and sending, by the sending device, the coded sequence; wherein the method is characterized in that the to-be-scrambled bit set comprises at least one of the assistant bits and at least one of the fixed bits. obtaining, by a sending device, positions of information bits, positions of fixed bits, and positions of assistant bits, wherein the assistant bits comprise at least one of the following bits: cyclic redundancy check, CRC, bits, parity check, PC, bits, and hash bits; allocating, by the sending device, the information bits, the fixed bits, and the assistant bits in a to-be-coded sequence based on the positions of the information bits, the positions of the fixed bits, and the positions of the assistant bits; obtaining, by the sending device, a scrambling sequence, and scrambling bits in a to-be-scrambled bit set based on the scrambling sequence to obtain a scrambled sequence, wherein the scrambling sequence is a radio network temporary identifier, RNTI, sequence of the sending device, and wherein the to-be-scrambled bit set comprises a set comprising the at least one of the fixed bits before an information bit; performing (S 104), by the sending device, polar coding on the scrambled sequence to obtain a coded sequence; and sending, by the sending device, the coded sequence; wherein the method is characterized in that the to-be-scrambled bit set comprises at least one of the assistant bits and at least one of the fixed bits.
A method for transmitting media data, by a sending entity, in a MPEG Media Transport, MMT, system, the method comprising: identifying at least one media processing unit, MPU, each of the at least one MPU including at least one media fragment unit, MFU; configuring a payload including media data of a first MFU of the at least one MFU; and transmitting a packet including the configured payload to a receiving entity, wherein, in case that the media data of the first MFU is timed media data, the payload includes sample number information indicating a sample number of a sample to which the media data of the first MFU belongs, and offset information indicating an offset of the media data of the first MFU in the sample, and wherein a respective MFU comprises, in a MFU header, a hint sample of a MMT hint track related to media data of a corresponding MFU, the hint sample including sequence number information indicating a sequence number of the corresponding MFU. identifying at least one media processing unit, MPU, each of the at least one MPU including at least one media fragment unit, MFU; configuring a payload including media data of a first MFU of the at least one MFU; and transmitting a packet including the configured payload to a receiving entity, wherein, in case that the media data of the first MFU is timed media data, the payload includes sample number information indicating a sample number of a sample to which the media data of the first MFU belongs, and offset information indicating an offset of the media data of the first MFU in the sample, and wherein a respective MFU comprises, in a MFU header, a hint sample of a MMT hint track related to media data of a corresponding MFU, the hint sample including sequence number information indicating a sequence number of the corresponding MFU.
A polytetrafluoroethylene heating element for use inside a reactor at high-temperatures and in strongly-corrosive media comprising a cylindrical polytetrafluoroethylene substrate and at least one electrical heating member, the electrical heating member is enclosed by the polytetrafluoroethylene substrate, a wiring terminal of the electrical heating member to be connected to a power supply is exposed out of said polytetrafluoroethylene substrate, characterized in that through slots set between each piece of electrical heating member inside said polytetrafluoroethylene substrate are cut in said cylindrical-type polytetrafluoroethylene substrate.
An evolved multimedia broadcast multicast service, eMBMS, management method, wherein the method comprises: receiving, by a multimedia broadcast multicast service coordination entity, MCE, load information sent by a base station; and managing, by the MCE, eMBMS resources according to the received load information, wherein the method is characterized in that the managing, by the MCE, eMBMS resources according to the received load information comprises: when the load information indicates that a load level of the base station is greater than or equal to a first threshold, making, by the MCE, the base station exit a multicast/broadcast over single frequency network, MBSFN, area, or making at least one of cells served by the base station exit an MBSFN area. receiving, by a multimedia broadcast multicast service coordination entity, MCE, load information sent by a base station; and managing, by the MCE, eMBMS resources according to the received load information, wherein the method is characterized in that the managing, by the MCE, eMBMS resources according to the received load information comprises: when the load information indicates that a load level of the base station is greater than or equal to a first threshold, making, by the MCE, the base station exit a multicast/broadcast over single frequency network, MBSFN, area, or making at least one of cells served by the base station exit an MBSFN area.
A fluid injector system comprising: a control device operably associated with at least one drive component for use in actuating a plurality of fluid containers, the plurality of fluid containers capable of being placed in fluid communication with a patient through an administration line with a first of the fluid containers capable of being filled with a first fluid comprising a contrast solution and a second of the fluid containers capable of being filled with a second fluid comprising a flushing agent; and the control device including at least one processor programmed or configured to enable programming of a diagnostic injection protocol comprising one or more phases according to which at least one of the first and the second fluid containers are selectively actuatable by the at least one drive component to enable injection of at least one of the first fluid and the second fluid via the administration line into the patient so as to effect enhancement of at least one region of interest thereof over a scan duration of a diagnostic imaging procedure; wherein the control device is further programmed or configured to, upon completion of the programming of the diagnostic injection protocol and priming of the administration line with the second fluid, enable selection and commencement of at least partial preloading into the administration line of a predetermined volume of at least one of the first fluid and the second fluid as prescribed in the one or more phases of the diagnostic injection protocol. a control device operably associated with at least one drive component for use in actuating a plurality of fluid containers, the plurality of fluid containers capable of being placed in fluid communication with a patient through an administration line with a first of the fluid containers capable of being filled with a first fluid comprising a contrast solution and a second of the fluid containers capable of being filled with a second fluid comprising a flushing agent; and the control device including at least one processor programmed or configured to enable programming of a diagnostic injection protocol comprising one or more phases according to which at least one of the first and the second fluid containers are selectively actuatable by the at least one drive component to enable injection of at least one of the first fluid and the second fluid via the administration line into the patient so as to effect enhancement of at least one region of interest thereof over a scan duration of a diagnostic imaging procedure; wherein the control device is further programmed or configured to, upon completion of the programming of the diagnostic injection protocol and priming of the administration line with the second fluid, enable selection and commencement of at least partial preloading into the administration line of a predetermined volume of at least one of the first fluid and the second fluid as prescribed in the one or more phases of the diagnostic injection protocol.
Power supply device with a connecting part for plugging in a kitchen appliance with a contact element (18 - 22) for contacting the kitchen appliance and with a switching device for connecting the contact element (18 - 22) to a power network, wherein the switching device comprises at least two switching elements (94, 96) which can be actuated independently of one another, characterised in that at least one of the switching elements (94, 96) comprises a housing (118, 120) with a switch button (98, 100) which can be displaced horizontally in an installation position.
A device, comprising: a Radio Frequency Identification, RFID, chip; a high frequency, HF, coil antenna including a first coil end and a second coil end; and an ultra high frequency, UHF, tuning loop conductively coupled to the RFID chip, characterized in that a first coupling pad is conductively coupled to the RFID chip and UHF tuning loop; a second coupling pad is conductively coupled to the RFID chip and UHF tuning loop; and the first coil end is configured to couple with the first coupling pad and the second coil end is configured to couple with the second coupling pad. a Radio Frequency Identification, RFID, chip; a high frequency, HF, coil antenna including a first coil end and a second coil end; and an ultra high frequency, UHF, tuning loop conductively coupled to the RFID chip, characterized in that a first coupling pad is conductively coupled to the RFID chip and UHF tuning loop; a second coupling pad is conductively coupled to the RFID chip and UHF tuning loop; and the first coil end is configured to couple with the first coupling pad and the second coil end is configured to couple with the second coupling pad.
An apparatus comprising: test control logic adapted to perform test rounds for a device including I/O buffer circuits (122 a, 122 b,..., 122 n) which each comprise a respective transmit path and a respective receive path, each of the test rounds comprising a respective loop-back test for each of the I/O buffer circuits, each of the test rounds corresponding to a different respective delay between a first clock signal and a second clock signal, the first clock signal to regulate communication along the respective transmit paths of each of the I/O buffer circuits, the second clock signal to regulate communication along the respective receive paths of each of the I/O buffer circuits; fail detect logic adapted to determine that a first test round of the test rounds, associated with a first delay between the two clock signals, indicates a failure condition for at least one I/O buffer circuit of the I/O buffer circuits, and to determine that a second test round of the test rounds, associated with a second delay between the two clock signals, indicates the failure condition for each of the I/O buffer circuits; and evaluation logic adapted to calculate a difference between the first delay and the second delay, and to generate a signal based on a comparison of the calculated difference to a threshold difference, wherein the signal indicates whether the device satifies a test criterion. test control logic adapted to perform test rounds for a device including I/O buffer circuits (122 a, 122 b,..., 122 n) which each comprise a respective transmit path and a respective receive path, each of the test rounds comprising a respective loop-back test for each of the I/O buffer circuits, each of the test rounds corresponding to a different respective delay between a first clock signal and a second clock signal, the first clock signal to regulate communication along the respective transmit paths of each of the I/O buffer circuits, the second clock signal to regulate communication along the respective receive paths of each of the I/O buffer circuits; fail detect logic adapted to determine that a first test round of the test rounds, associated with a first delay between the two clock signals, indicates a failure condition for at least one I/O buffer circuit of the I/O buffer circuits, and to determine that a second test round of the test rounds, associated with a second delay between the two clock signals, indicates the failure condition for each of the I/O buffer circuits; and evaluation logic adapted to calculate a difference between the first delay and the second delay, and to generate a signal based on a comparison of the calculated difference to a threshold difference, wherein the signal indicates whether the device satifies a test criterion.
A polyphase filter having first and second input terminals (31, 32) for receiving an input signal and first to fourth output terminals (41, 42, 43, 44) for outputting four output signals generated from the input signal, the output signals being different in phase from each other, the filter comprising first to fifth resistors and first to fourth reactance elements, wherein one end of the first resistor is connected to one end of the first reactance element, the other end of the first reactance element is connected to one end of the second resistor, the other end of the second resistor is connected to one end of the second reactance element, the other end of the second reactance element is connected to one end of the third resistor, the other end of the third resistor is connected to one end of the third reactance element, the other end of the third reactance element is connected to one end of the fourth resistor, the other end of the fourth resistor is connected to one end of the fourth reactance element, the other end of the fourth reactance element is connected to the other end of the first resistor, one end of the fifth resistor is connected to only the connection point between the first reactance element and the second resistor, and the other end of the fifth resistor is connected to only the connection point between: the third reactance element and the fourth resistor, the first output terminal is connected to the connection point between the first resistor and the first reactance element, the second output terminal is connected to the connection point between the second resistor and the second reactance element, the third output terminal is connected to the connection point between the third resistor and the third reactance element, the fourth output terminal is connected to the connection point between the fourth resistor and the fourth reactance element, only the first and second input terminals (31, 32) are input terminals of the polyphase filter, the first input terminal is connected to only the connection point between the fourth reactance element and the first resistor, and the second input terminal is connected to only the connection point between: the second reactance element and the third resistor.
A solid anode X-ray tube having a high voltage vacuum feed through comprising: - an insulating body made of ceramic material, the insulating body having a continuous hollow space, - and an anode, wherein a rear end of the anode is arranged in the hollow space of the insulating body and seals the hollow space in a vacuum-tight fashion, wherein the anode has a two-part design with a rear part and a front part, the rear part being made from a first metallic material having a thermal expansion coefficient α ht which corresponds to the thermal expansion coefficient α ker of the ceramic material, wherein the rear part is arranged in the hollow space of the insulating body and is soldered into the insulating body in a vacuum-tight fashion, the front part consisting at least partially of a second metallic material having a heat conductivity λ vt which is larger than the heat conductivity X ht of the first metallic material of the rear part, and wherein the front part is mounted to the rear part, characterized in that the insulating body has a wall thickness WSv in a front area which is larger than a wall thickness WSm in a central area, wherein the rear part extends at least partially in the central area, that WSm≤2/3*WSv, that at least 2/3 of the length of the rear part extends in the central area, and that a cooling device is seated on an outside of the insulating body in the central area. - an insulating body made of ceramic material, the insulating body having a continuous hollow space, - and an anode, wherein a rear end of the anode is arranged in the hollow space of the insulating body and seals the hollow space in a vacuum-tight fashion,