mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting channel state information of multiple coordinated points in a coordinated multi-Point (CoMP) system, the method comprising: coding the CSI of the multiple coordinated points; modulating the coded CSI of the multiple coordinated points; and multiplexing the modulated CSI on a physical uplink shared channel (PUSCH), wherein multiplexing a channel quality indicator/precoding matrix indicator (CQI/PMI) in the CSI comprises multiplexing the CQI/PMI in a code word having the highest modulation and coding order and multiplexing the CQI/PMI in other code words, wherein the CSI of the multiple coordinated points is coded by one of a separate coding and hybrid coding; and wherein the method further comprises: when the CSI is multiplexed on the PUSCH, allocating the same or different resource offset parameters for the CSI after the separate coding or hybrid coding, the resource offset parameters being configured by upper-layer signaling; and transmitting the CSI after the separate coding or hybrid coding, the method characterized in that multiplexing a rank indicator in the CSI comprises multiplexing different RIs for different uplink ranks, and by indicating by the upper-layer signaling a start point of the coded CSI when using centralized processing after separate coding wherein the multiplexing is frequency division multiplexing and not indicating a start point when using distributed processing after separate coding wherein the multiplexing is frequency division multiplexing, wherein the CSI is transmitted connected in a predetermined order, and in one sub-frame. coding the CSI of the multiple coordinated points; modulating the coded CSI of the multiple coordinated points; and multiplexing the modulated CSI on a physical uplink shared channel (PUSCH), wherein multiplexing a channel quality indicator/precoding matrix indicator (CQI/PMI) in the CSI comprises multiplexing the CQI/PMI in a code word having the highest modulation and coding order and multiplexing the CQI/PMI in other code words, wherein the CSI of the multiple coordinated points is coded by one of a separate coding and hybrid coding; and wherein the method further comprises: when the CSI is multiplexed on the PUSCH, allocating the same or different resource offset parameters for the CSI after the separate coding or hybrid coding, the resource offset parameters being configured by upper-layer signaling; and transmitting the CSI after the separate coding or hybrid coding, the method characterized in that multiplexing a rank indicator in the CSI comprises multiplexing different RIs for different uplink ranks, and by indicating by the upper-layer signaling a start point of the coded CSI when using centralized processing after separate coding wherein the multiplexing is frequency division multiplexing and not indicating a start point when using distributed processing after separate coding wherein the multiplexing is frequency division multiplexing, wherein the CSI is transmitted connected in a predetermined order, and in one sub-frame.
A system for measuring flow of process fluid past a flow restriction element positioned in process piping in an industrial process comprising: a first differential pressure transmitter configured to measure a first differential pressure in the process fluid due to flow of process fluid past the flow restriction element; a second differential pressure transmitter configured to measure a second differential pressure in the process fluid due to flow of process fluid past the flow restriction element; characterized by a data link configured to provide data communications between the first differential pressure transmitter and the second pressure transmitter; and a circuitry configured to perform diagnostics based upon observing a trend in changes of a parameter, wherein said parameter is a pressure loss ratio calculated from the measured first and the second differential pressures, and wherein the trend is a variation over time. a first differential pressure transmitter configured to measure a first differential pressure in the process fluid due to flow of process fluid past the flow restriction element; a second differential pressure transmitter configured to measure a second differential pressure in the process fluid due to flow of process fluid past the flow restriction element; a data link configured to provide data communications between the first differential pressure transmitter and the second pressure transmitter; and a circuitry configured to perform diagnostics based upon observing a trend in changes of a parameter, wherein said parameter is a pressure loss ratio calculated from the measured first and the second differential pressures, and wherein the trend is a variation over time.
A method for determining a billing region to utilize for charging a mobile subscriber for an Internet Protocol Multimedia Subsystems ("IMS") session, wherein the IMS session is conducted between the subscriber's mobile device and an IMS core network, the method comprising: receiving a public Internet Protocol ("IP") address associated with the mobile device during registration of the mobile device with the IMS core network; sending a query to a geolocation server for an estimated physical location of the mobile device, wherein the query includes an indication of the received public IP address; receiving the estimated physical location of the mobile device from the geolocation server; identifying a billing Cell Global Identification ("CGI") that is associated with the estimated physical location of the mobile device, wherein the billing CGI is a dummy CGI that is not associated with a physical cell site in a radio access network, but is instead utilized solely for IMS billing purposes; and providing the billing CGI to a billing server in conjunction with a session identifier that is associated with the IMS session, wherein the billing server is configured to determine a billing region from the billing CGI. receiving a public Internet Protocol ("IP") address associated with the mobile device during registration of the mobile device with the IMS core network; sending a query to a geolocation server for an estimated physical location of the mobile device, wherein the query includes an indication of the received public IP address; receiving the estimated physical location of the mobile device from the geolocation server; identifying a billing Cell Global Identification ("CGI") that is associated with the estimated physical location of the mobile device, wherein the billing CGI is a dummy CGI that is not associated with a physical cell site in a radio access network, but is instead utilized solely for IMS billing purposes; and providing the billing CGI to a billing server in conjunction with a session identifier that is associated with the IMS session, wherein the billing server is configured to determine a billing region from the billing CGI.
Method of filling a reservoir (2; 102) of a device (1; 101; 301) for dispensing a liquid to pasty product without air intake, this reservoir comprising or forming a container (3; 103) of variable volume, the reservoir comprising: - a top part (2a; 102a) with a main opening (2c; 102c), the container having a single opening into this main opening, and - a remaining part (2b; 102b) provided with a pressure balancing means (11; 111) facing the outside of the tank, said distribution device being without air intake into the container, said method comprising the following steps: - filling said container with said product, and then - positioning a dispensing member of said product on said main opening, then - evacuating said upper part and the interior of said container, while leaving said remaining part at atmospheric pressure, the exterior of said container thus remaining at atmospheric pressure by virtue of the balancing means, and then - maintaining the vacuum until a certain time, - sealing of said container by said dispensing member while maintaining the vacuum, - the dispensing member is positioned by placing the dispensing member on a neck (2d; 102d) of the reservoir (2; 102) so as to present a contact zone which is partially sealed off from the product between the dispensing member and the neck, while nevertheless allowing air to pass from the container to the outside of the reservoir through this contact zone. - a top part (2a; 102a) with a main opening (2c; 102c), the container having a single opening into this main opening, and - a remaining part (2b; 102b) provided with a pressure balancing means (11; 111) facing the outside of the tank, said distribution device being without air intake into the container, - filling said container with said product, and then - positioning a dispensing member of said product on said main opening, then - evacuating said upper part and the interior of said container, while leaving said remaining part at atmospheric pressure, the exterior of said container thus remaining at atmospheric pressure by virtue of the balancing means, and then - maintaining the vacuum until a certain time, - sealing of said container by said dispensing member while maintaining the vacuum, - the dispensing member is positioned by placing the dispensing member on a neck (2d; 102d) of the reservoir (2; 102) so as to present a contact zone which is partially sealed off from the product between the dispensing member and the neck, while nevertheless allowing air to pass from the container to the outside of the reservoir through this contact zone.
A gas turbine engine comprising a clearance control ring assembly, said assembly comprising: a stator component disposed opposite a rotor component; a clearance control ring (40,1440) being formed of a single structure and extending circumferentially disposed radially outward of at least a portion of said stator component; wherein said clearance control ring is a CMC ring, said ring being located in a gap between a first aft case and a second aft case, the second aft case comprising the stator component; said clearance control ring having a coefficient of thermal expansion which is lower than said at least a portion of said stator component; and, wherein said at least a portion of said stator component is limited from thermal expansion and limited from growth from said rotor component; characterized by comprising a biasing mechanism being located within the gap and being adjacent the clearance control ring and configured to provide a radial and axial bias to the clearance control ring. a stator component disposed opposite a rotor component; a clearance control ring (40,1440) being formed of a single structure and extending circumferentially disposed radially outward of at least a portion of said stator component; wherein said clearance control ring is a CMC ring, said ring being located in a gap between a first aft case and a second aft case, the second aft case comprising the stator component; said clearance control ring having a coefficient of thermal expansion which is lower than said at least a portion of said stator component; and, wherein said at least a portion of said stator component is limited from thermal expansion and limited from growth from said rotor component; characterized by comprising a biasing mechanism being located within the gap and being adjacent the clearance control ring and configured to provide a radial and axial bias to the clearance control ring.
A method of a user equipment, UE, in a wireless communication system, the method comprising: identifying a first status for a secondary cell, SCell, of the UE; identifying whether a first medium access control, MAC, control element, CE, or a second MAC CE is received from a base station (105, 110, 115, 120), wherein the first MAC CE indicates that the SCell is transitioned into an activated state or a deactivated state, and the second MAC CE indicates that the SCell is transitioned into the activated state or a dormant state; and determining a second status for the SCell based on the first status and the first MAC CE, in case that the first MAC CE is received from the base station (105, 110, 115, 120) and the second MAC CE is not received from the base station (105, 110, 115, 120), wherein, in case that the first status for the SCell is the dormant state and the first MAC CE indicates that the SCell is transitioned into the activated state, the second status for the SCell is determined to be maintained as the dormant state, and wherein, in case that the first status for the SCell is the dormant state and the first MAC CE indicates that the SCell is transitioned into the deactivated state, the second status for the SCell is determined as the deactivated state. identifying a first status for a secondary cell, SCell, of the UE; identifying whether a first medium access control, MAC, control element, CE, or a second MAC CE is received from a base station (105, 110, 115, 120), wherein the first MAC CE indicates that the SCell is transitioned into an activated state or a deactivated state, and the second MAC CE indicates that the SCell is transitioned into the activated state or a dormant state; and determining a second status for the SCell based on the first status and the first MAC CE, in case that the first MAC CE is received from the base station (105, 110, 115, 120) and the second MAC CE is not received from the base station (105, 110, 115, 120), wherein, in case that the first status for the SCell is the dormant state and the first MAC CE indicates that the SCell is transitioned into the activated state, the second status for the SCell is determined to be maintained as the dormant state, and wherein, in case that the first status for the SCell is the dormant state and the first MAC CE indicates that the SCell is transitioned into the deactivated state, the second status for the SCell is determined as the deactivated state.
Forehead support band for helmets, in particular work or sports protective helmets, comprising an elongated structure, preferably flexible, capable of assuming an arched configuration in the mounted condition on a helmet, said structure having a first portion intended to permanently face, from the inside, the front part of a helmet on which said forehead support band is mounted and a second portion adapted to engage a user's forehead when said helmet is being used; said portions (4, 5) of said structure being removably engaged, and being disengageable to allow the separation of the same or the temporary removal of said second portion or the replacement of said second portion with another second portion identical to the removed one or different from the removed one, said forehead support band comprising engagement means operatively interposed between said first portion and said second portion of said structure to allow both the joining of such portions (4, 5) and the disengagement of said portions (4, 5) when necessary, characterised by said engagement means comprising a plurality of protrusions each having at least one coupling portion having enlarged section and a plurality of seats each having an elastically yielding coupling edge, each protrusion being insertable into a respective seat and being removable therefrom by exploiting the yielding capacity of the coupling edge of the latter, said engagement means comprising a protrusion and a centring seat each arranged respectively at the midpoint of the respective portion (4, 5) of said structure, the coupling edge of the centring seat delimiting an opening for the respective centring protrusion that does not allow such centring protrusion to move transversely, i.e. that does allow the sliding of the centring protrusion along the longitudinal development of said portions (4, 5), the seats of the engagement means arranged on one side and on the other one with respect to the centring seat defining, on the body (4a, 5a) of the respective portion (4, 5) of said structure, respective slots that develop along the longitudinal development of the respective portion (4, 5), each slot allowing the sliding of the respective protrusion in order to allow switching the structure and the forehead support band between a substantially straight condition and an arched condition.
A method of migrating applications to an application hosting cloud (100; 250, 252; 254) that hosts arbitrary applications (124, 126) for access by clients (120, 122) over the Internet, the method comprising: selecting a target application (280; 322) to migrate to the application hosting cloud; passing the target application to a migration tool, wherein the migration tool uses a migration library, wherein the migration library includes one or more pluralities of migration rules, wherein each plurality of migration rules corresponds to a different application hosting cloud, wherein the one or more pluralities of migration rules includes at least one of code rules, operating system rules, semantic rules, database rules, or installer rules; parsing and analyzing the target application with the migration tool to identify migration rules that are applicable to the target application, wherein the migration tool reads source code files and configuration files of the target application, wherein one of the identified rules comprises description of structure queried language, SQL, code and a code modification; and applying the identified migration rules to the target application to modify the target application for execution in the application hosting cloud, wherein the applying the identified migration rules includes applying the one of the identified rules to change a portion of code of the target application that matches the description, the code prior to being changed being unable to execute correctly in the application hosting cloud. selecting a target application (280; 322) to migrate to the application hosting cloud; passing the target application to a migration tool, wherein the migration tool uses a migration library, wherein the migration library includes one or more pluralities of migration rules, wherein each plurality of migration rules corresponds to a different application hosting cloud, wherein the one or more pluralities of migration rules includes at least one of code rules, operating system rules, semantic rules, database rules, or installer rules; parsing and analyzing the target application with the migration tool to identify migration rules that are applicable to the target application, wherein the migration tool reads source code files and configuration files of the target application, wherein one of the identified rules comprises description of structure queried language, SQL, code and a code modification; and applying the identified migration rules to the target application to modify the target application for execution in the application hosting cloud, wherein the applying the identified migration rules includes applying the one of the identified rules to change a portion of code of the target application that matches the description, the code prior to being changed being unable to execute correctly in the application hosting cloud.
A kit for the introduction of modular vector elements comprising: (a) a preference vector, wherein said preference vector comprises a promoter sequence; and (b) a content vector, wherein said content vector comprises a genomic content of interest, a first LTR sequence that is 5' of the genomic content of interest and a second LTR sequence that is 3' of the genomic content of interest, and wherein said content vector does not comprise any promoter sequence and said preference vector does not comprise said genomic content of interest and further wherein said preference vector contains a single Lox77 recombination site and said content vector contains a single Lox66 recombination site, wherein said content vector and said preference vector are capable of combining through a cross-over event driven by Cre recombinase to form a lentiviral vector. (a) a preference vector, wherein said preference vector comprises a promoter sequence; and (b) a content vector, wherein said content vector comprises a genomic content of interest, a first LTR sequence that is 5' of the genomic content of interest and a second LTR sequence that is 3' of the genomic content of interest, and wherein said content vector does not comprise any promoter sequence and said preference vector does not comprise said genomic content of interest and further wherein said preference vector contains a single Lox77 recombination site and said content vector contains a single Lox66 recombination site, wherein said content vector and said preference vector are capable of combining through a cross-over event driven by Cre recombinase to form a lentiviral vector.
A system comprising: - a water heater comprising a water tank and a device for heating the water in the tank, the device comprising first heating means powered by a power grid; - hot water consuming home equipment, distinct from said water heater, the equipment being able to be supplied with both cold water and/or hot water, and comprising second heating means powered by the power grid; the system further comprising a control element configured to enable or disable the hot water supply to the equipment from the tank depending on at least data descriptive of a state of said power grid. - a water heater comprising a water tank and a device for heating the water in the tank, the device comprising first heating means powered by a power grid; - hot water consuming home equipment, distinct from said water heater, the equipment being able to be supplied with both cold water and/or hot water, and comprising second heating means powered by the power grid; the system further comprising a control element configured to enable or disable the hot water supply to the equipment from the tank depending on at least data descriptive of a state of said power grid.