mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, performed by a user equipment, UE, the method comprising: receiving a common downlink control message that includes an indication of available uplink frequency resources of a shared radio frequency spectrum band and an indication of a payload size of an unscheduled uplink control message; selecting the payload size of the unscheduled uplink control message based at least in part on uplink control information, UCI, to be included in the unscheduled uplink control message and on the indication of the payload size; and transmitting the unscheduled uplink control message with the payload size using the available uplink frequency resources. receiving a common downlink control message that includes an indication of available uplink frequency resources of a shared radio frequency spectrum band and an indication of a payload size of an unscheduled uplink control message; selecting the payload size of the unscheduled uplink control message based at least in part on uplink control information, UCI, to be included in the unscheduled uplink control message and on the indication of the payload size; and transmitting the unscheduled uplink control message with the payload size using the available uplink frequency resources.
A method for operating a power generation system that supplies real and reactive power to a grid, the power generation system including a generator with a power converter , and a dedicated reactive power compensation device , the method comprising: receiving a total reactive power demand, Qcmd, made on the power generation system at an operating state of the power generation system and grid state; determining a maximum reactive power capacity for each of a generator stator side reactive power, Qs, a generator line-side reactive power, Ql, and reactive power from the reactive power compensation device, Qmvb; coordinating supply of Qcmd from between Qs, Ql, and Qmvb at the operating state of the power generation system and the grid state by prioritizing Qmvb as a first source of reactive power, and one or both of Qs and Ql as a second source of reactive power, wherein coordinating the supply comprises, when Qcmd is greater than the maximum capacity of Qmvb, then the maximum capacity of Qmvb is supplied and a deficiency between Qcmd and Qmvb is allocated to one or both of Qs and Ql, wherein Qs has priority over Ql such that the deficiency between Qcmd and Qmvb is first allocated up to the maximum capacity of Qs, and then to Ql. receiving a total reactive power demand, Qcmd, made on the power generation system at an operating state of the power generation system and grid state; determining a maximum reactive power capacity for each of a generator stator side reactive power, Qs, a generator line-side reactive power, Ql, and reactive power from the reactive power compensation device, Qmvb; coordinating supply of Qcmd from between Qs, Ql, and Qmvb at the operating state of the power generation system and the grid state by prioritizing Qmvb as a first source of reactive power, and one or both of Qs and Ql as a second source of reactive power, wherein coordinating the supply comprises, when Qcmd is greater than the maximum capacity of Qmvb, then the maximum capacity of Qmvb is supplied and a deficiency between Qcmd and Qmvb is allocated to one or both of Qs and Ql, wherein Qs has priority over Ql such that the deficiency between Qcmd and Qmvb is first allocated up to the maximum capacity of Qs, and then to Ql.
Securing element (1; 1a) for a bearing device in a housing of a drive device , wherein the plate-like securing element (1; 1a) has two side legs and a base leg which connects the side legs , wherein, between the base leg and the side legs , there is formed a cutout for receiving a shaft which is mounted rotatably in a bearing , wherein the two side legs are designed to interact, by means of a first face side , with the bearing and, by means of a second face side , with a stop surface in the housing , wherein the securing element (1; 1a) is at least regionally bent in a direction arranged perpendicular to two axes (X, Y) running in the plane of the securing element (1; 1a), and has a bulge in the bent region, one (X) of the two axis running in the direction of the longitudinal extent of the side legs , and one (Y) of the two axis running in the direction of the longitudinal extent of the base leg , wherein the securing element (1; 1a) is regionally bent along the two side legs , said bulge being arranged in an approximately central region in relation to the longitudinal extent of the two side legs , wherein the securing element (1; 1a) has planar portions at peripheral regions outside the bulge , characterized in that the securing element (1; 1a), in the region of the base leg , has a stiffening portion which projects at 90 degrees from the plane of the securing element (1; 1a). wherein the securing element (1; 1a) is at least regionally bent in a direction arranged perpendicular to two axes (X, Y) running in the plane of the securing element (1; 1a), and has a bulge in the bent region, one (X) of the two axis running in the direction of the longitudinal extent of the side legs , and one (Y) of the two axis running in the direction of the longitudinal extent of the base leg , wherein the securing element (1; 1a) is regionally bent along the two side legs , said bulge being arranged in an approximately central region in relation to the longitudinal extent of the two side legs , wherein the securing element (1; 1a) has planar portions at peripheral regions outside the bulge , characterized in that the securing element (1; 1a), in the region of the base leg , has a stiffening portion which projects at 90 degrees from the plane of the securing element (1; 1a).
A method performed by a user equipment, UE, of a communication system, the method comprising: receiving, from a base station, first downlink control information, DCI, associated with first priority information; receiving, from the base station, second DCI associated with second priority information; identifying that a resource of a physical uplink control channel, PUCCH, associated with the first DCI and a resource of a physical uplink shared channel, PUSCH, associated with the second DCI overlap on a time domain; in case that a priority of the PUCCH and a priority of the PUSCH are different based on the first priority information and the second priority information, transmitting, to the base station, one of the PUCCH and the PUSCH corresponding to a higher priority; in case that the priority of the PUCCH and the priority of the PUSCH are same based on the first priority information and the second priority information, multiplexing the PUCCH and the PUSCH by PUSCH-based multiplexing, wherein the first priority information and the second priority information is obtained based on the first DCI and the second DCI, wherein the PUCCH or the PUSCH includes information on a HARQ-ACK codebook generated based on acknowledgment information for a plurality of downlink data, and wherein respective acknowledgment information bit for the plurality of downlink data is to be arranged in the HARQ-ACK codebook in ascending order of a cell index and in ascending order of a HARQ process index corresponding to the plurality of downlink data for a same cell index. receiving, from a base station, first downlink control information, DCI, associated with first priority information; receiving, from the base station, second DCI associated with second priority information; identifying that a resource of a physical uplink control channel, PUCCH, associated with the first DCI and a resource of a physical uplink shared channel, PUSCH, associated with the second DCI overlap on a time domain; in case that a priority of the PUCCH and a priority of the PUSCH are different based on the first priority information and the second priority information, transmitting, to the base station, one of the PUCCH and the PUSCH corresponding to a higher priority; in case that the priority of the PUCCH and the priority of the PUSCH are same based on the first priority information and the second priority information, multiplexing the PUCCH and the PUSCH by PUSCH-based multiplexing, wherein the first priority information and the second priority information is obtained based on the first DCI and the second DCI, wherein the PUCCH or the PUSCH includes information on a HARQ-ACK codebook generated based on acknowledgment information for a plurality of downlink data, and wherein respective acknowledgment information bit for the plurality of downlink data is to be arranged in the HARQ-ACK codebook in ascending order of a cell index and in ascending order of a HARQ process index corresponding to the plurality of downlink data for a same cell index.
A method of fabricating an integrated light emitting diode (LED) micro-display, in particular an integrated full-colour LED micro-display, comprising: providing a colour converter capable of changing the wavelength of light, the colour converter including: a transparent substrate ; a red/green colour conversion layer ; and a mask ; providing an array of micro-LEDs connected to the colour converter and which is capable of forming electrical connections and pumping blue light into the colour converter; and providing a backplane control in the form of an electronic drive layer ; wherein the micro-LED array generates pumped blue light at a shorter wavelength than emitted light from the colour converter thereby producing light at a longer wavelength; wherein the integrated LED micro-display comprises a red colour conversion cell comprising the red colour conversion layer, a green colour conversion cell comprising the green colour conversion layer, and a blue sub-pixel without colour conversion substance; characterised in that the blue sub-pixel comprises a transparent layer , wherein the transparent layer does not comprise a colour conversion substance; and wherein the transparent layer has a diffusing or scattering function to provide a similar beam profile as the colour conversion layer in the red and green cells. providing a colour converter capable of changing the wavelength of light, the colour converter including: a transparent substrate ; a red/green colour conversion layer ; and a mask ; providing an array of micro-LEDs connected to the colour converter and which is capable of forming electrical connections and pumping blue light into the colour converter; and providing a backplane control in the form of an electronic drive layer ; a transparent substrate ; a red/green colour conversion layer ; and a mask ; providing an array of micro-LEDs connected to the colour converter and which is capable of forming electrical connections and pumping blue light into the colour converter; and providing a backplane control in the form of an electronic drive layer ; wherein the micro-LED array generates pumped blue light at a shorter wavelength than emitted light from the colour converter thereby producing light at a longer wavelength; wherein the integrated LED micro-display comprises a red colour conversion cell comprising the red colour conversion layer, a green colour conversion cell comprising the green colour conversion layer, and a blue sub-pixel without colour conversion substance; characterised in that the blue sub-pixel comprises a transparent layer , wherein the transparent layer does not comprise a colour conversion substance; and wherein the transparent layer has a diffusing or scattering function to provide a similar beam profile as the colour conversion layer in the red and green cells.
A mobile communication network system comprising a core network accessed from a mobile terminal , wherein when a detach request signal, that requests detach, is received from the mobile terminal , a mobile management node , arranged on the core network side in order to perform management control of mobile communication, is arranged to release resources between the mobile terminal and a radio base station eNodeB , and hold a communication session of the core network side set when the mobile terminal is attached, and when an attach request signal, that requests attach, is received from the mobile terminal after receiving the detach request signal, the mobile management node is arranged to use the held communication session of the core network side, and to send an EMM Attach Accept signal of the S1-AP_Initial Context Setup Request form to the radio base station eNodeB , wherein the mobile management node is arranged to determine whether or not attach processing of the core network side is omitted depending on a wake up notification, that indicates that the power source of the mobile terminal has transitioned to a wake up state from a sleep state at the time of attach, added to the attach request signal and to determine whether or not detach processing of the core network side is omitted depending on a sleep notification, that indicates that a power source of the mobile terminal transitions to a sleep state at the time of detach, added to the detach request signal, wherein when receiving the detach request signal from the mobile terminal , and omitting the detach processing of the core network side, the mobile management node sets to a session holding timer a time longer by a predetermined time than a generation interval of a reattach/redetach request from the mobile terminal as a time to wait for forced release of the held communication session, and when the session holding timer expires without receiving the attach request signal from the mobile terminal , the mobile management node deletes information on the held communication session by making usual detach processing of the core network side carried out, and forcibly releases the communication session.
A method of receiving media data, comprising: receiving (S410) a media presentation description, MPD, file that includes an essential property descriptor for session-based dynamic adaptive streaming over hypertext transfer protocol, DASH, the essential property descriptor indicating a session-based description, SBD, file and including a set of keys for a part of a uniform resource locator, URL, that is used for receiving the media data; determining (S420) a respective value for each of the set of keys based on whether the respective value is included in the SBD file; and modifying (S430) the URL based on the set of keys and the determined values; wherein the part of the URL is one of a plurality of parts of the URL, the essential property descriptor includes a first flag indicating whether a full match of all the parts of the URL is required, and the method further comprises: determining that the URL is not to be modified based on at least one part of the URL not being modified and the first flag indicating that the full match of all parts of the URL is required; and determining that the URL is to be modified based on the at least one part of the URL being modified and the first flag indicating that the full match of all parts of the URL is not required. receiving (S410) a media presentation description, MPD, file that includes an essential property descriptor for session-based dynamic adaptive streaming over hypertext transfer protocol, DASH, the essential property descriptor indicating a session-based description, SBD, file and including a set of keys for a part of a uniform resource locator, URL, that is used for receiving the media data; determining (S420) a respective value for each of the set of keys based on whether the respective value is included in the SBD file; and modifying (S430) the URL based on the set of keys and the determined values; wherein the part of the URL is one of a plurality of parts of the URL, the essential property descriptor includes a first flag indicating whether a full match of all the parts of the URL is required, and the method further comprises: determining that the URL is not to be modified based on at least one part of the URL not being modified and the first flag indicating that the full match of all parts of the URL is required; and determining that the URL is to be modified based on the at least one part of the URL being modified and the first flag indicating that the full match of all parts of the URL is not required. determining that the URL is not to be modified based on at least one part of the URL not being modified and the first flag indicating that the full match of all parts of the URL is required; and determining that the URL is to be modified based on the at least one part of the URL being modified and the first flag indicating that the full match of all parts of the URL is not required.
Process of comminution of iron ore or iron ore products , characterized in that it comprises at least a first and a second comminution operations performed by using at least one equipment selected from the group consisting of a roller press (HPGR), a vertical roller mill (VRM), a roller crusher (RC), and high acceleration screen with acceleration of at least 98.06 m/s 2 , wherein the at least first and second comminution operations are performed at natural moisture with moisture up to 12% of its weight, without the need to add water or a drying step to the process.
A method for detecting one or more target molecules in a sub-population of cells, the method comprising: a) contacting a sample comprising a complex mixture of cells with two unique binding agents, wherein the two unique binding agents are proximity oligonucleotide probes designed to hybridize to complementary segments of a target mRNA that are in close proximity to each other, and wherein at least one of the two oligonucleotide probes is attached to an oligonucleotide epitope specific barcode that represents the identities of the target molecules; b) linking the proximity oligonucleotide probes together using bridge oligonucleotides; c) sequentially attaching two or more oligonucleotide assayable polymer subunits to the epitope specific barcodes using a split-pool combinatorial synthesis approach to create unique cell origination barcodes that represent the identities of individual cells to which the unique proximity oligonucleotide probes have bound; d) selectively amplifying and sequencing the epitope specific barcode and cell origination barcodes associated with the proximity oligonucleotide probes to identify a sub-population of cells expressing the target RNA. a) contacting a sample comprising a complex mixture of cells with two unique binding agents, wherein the two unique binding agents are proximity oligonucleotide probes designed to hybridize to complementary segments of a target mRNA that are in close proximity to each other, and wherein at least one of the two oligonucleotide probes is attached to an oligonucleotide epitope specific barcode that represents the identities of the target molecules; b) linking the proximity oligonucleotide probes together using bridge oligonucleotides; c) sequentially attaching two or more oligonucleotide assayable polymer subunits to the epitope specific barcodes using a split-pool combinatorial synthesis approach to create unique cell origination barcodes that represent the identities of individual cells to which the unique proximity oligonucleotide probes have bound; d) selectively amplifying and sequencing the epitope specific barcode and cell origination barcodes associated with the proximity oligonucleotide probes to identify a sub-population of cells expressing the target RNA.
A method for concurrent use of multiple heart rate estimation techniques, the method comprising: providing a plurality of heart rate estimators for estimating a heart rate, each one of the plurality of heart rate estimators optimized for one of a number of predetermined measurement contexts for measuring the heart rate with a wearable physiological monitor; providing a plurality of probability estimators, each one of the plurality of probability estimators corresponding to one of the plurality of heart rate estimators, and each one of the plurality of probability estimators providing a likelihood that a corresponding heart rate estimator is accurately estimating the heart rate based on a physiological signal from the wearable physiological monitor; acquiring the physiological signal with a photoplethysmography (PPG) sensor of the wearable physiological monitor over an interval having segments; for the physiological signal for each segment of the interval, assigning one or more selected ones of the plurality of heart rate estimators to the segment according to the likelihood of accurately estimating the heart rate in the segment; and providing a heart rate signal over the interval based upon the physiological signal and the selected ones of the plurality of heart rate estimators. providing a plurality of heart rate estimators for estimating a heart rate, each one of the plurality of heart rate estimators optimized for one of a number of predetermined measurement contexts for measuring the heart rate with a wearable physiological monitor; providing a plurality of probability estimators, each one of the plurality of probability estimators corresponding to one of the plurality of heart rate estimators, and each one of the plurality of probability estimators providing a likelihood that a corresponding heart rate estimator is accurately estimating the heart rate based on a physiological signal from the wearable physiological monitor; acquiring the physiological signal with a photoplethysmography (PPG) sensor of the wearable physiological monitor over an interval having segments; for the physiological signal for each segment of the interval, assigning one or more selected ones of the plurality of heart rate estimators to the segment according to the likelihood of accurately estimating the heart rate in the segment; and providing a heart rate signal over the interval based upon the physiological signal and the selected ones of the plurality of heart rate estimators.
A bit for horses, comprising a central element suitable for insertion into the horse's mouth, and a pair of side rings , each connected to a respective end of the central element for connection to the reins, wherein the central element is made of a plastic material and the ends of the central element are overmolded on coupling portions of the respective side rings, and wherein a reinforcing metal core , extending between the coupling portions of the side rings, is completely embedded in the central element, and wherein each end of the reinforcing metal core is fastened to the respective coupling portion of the side ring, and wherein each coupling portion of each side ring comprises a recess wherein at least one coupling crosspiece extends, and wherein the end of the reinforcing metal core forms a hook that engages said coupling crosspiece, and characterized in that the reinforcing metal core is composed of a reinforcing rod , and in that , in the recess, two parallel, inner and outer coupling crosspieces extend, and wherein each hook of the reinforcing rod is S-shaped to engage both coupling crosspieces passing over the outer crosspiece and under the inner crosspiece. wherein a reinforcing metal core , extending between the coupling portions of the side rings, is completely embedded in the central element, and wherein each end of the reinforcing metal core is fastened to the respective coupling portion of the side ring, and wherein each coupling portion of each side ring comprises a recess wherein at least one coupling crosspiece extends, and wherein the end of the reinforcing metal core forms a hook that engages said coupling crosspiece, and characterized in that the reinforcing metal core is composed of a reinforcing rod , and in that , in the recess, two parallel, inner and outer coupling crosspieces extend, and wherein each hook of the reinforcing rod is S-shaped to engage both coupling crosspieces passing over the outer crosspiece and under the inner crosspiece.