mhurhangee/ep-ind-claims huggingface dataset:
A wireless transmit/receive unit, WTRU, (90, 102) comprising: a receiver (97, 120, 122) configured to receive, from a network node, one or more configuration parameters associated with sidelink communication, wherein the one or more configuration parameters comprise a logical channel configuration; wherein the receiver is further configured to receive a sidelink resource grant; one or more processors (91,118) configured to: select, based on the received logical channel configuration, one or more sidelink logical channels of a plurality of the sidelink logical channels of the apparatus to be served by the sidelink resource grant, and generate a medium access control, MAC, protocol data unit, PDU, comprising data associated with the selected one or more sidelink logical channels; and a transmitter (97, 120, 122) configured to transmit the generated MAC PDU using the received sidelink resource grant. a receiver (97, 120, 122) configured to receive, from a network node, one or more configuration parameters associated with sidelink communication, wherein the one or more configuration parameters comprise a logical channel configuration; wherein the receiver is further configured to receive a sidelink resource grant; one or more processors (91,118) configured to: select, based on the received logical channel configuration, one or more sidelink logical channels of a plurality of the sidelink logical channels of the apparatus to be served by the sidelink resource grant, and generate a medium access control, MAC, protocol data unit, PDU, comprising data associated with the selected one or more sidelink logical channels; and select, based on the received logical channel configuration, one or more sidelink logical channels of a plurality of the sidelink logical channels of the apparatus to be served by the sidelink resource grant, and generate a medium access control, MAC, protocol data unit, PDU, comprising data associated with the selected one or more sidelink logical channels; and a transmitter (97, 120, 122) configured to transmit the generated MAC PDU using the received sidelink resource grant.
Fibrous product, especially tissue paper product, non-woven product or a hybrid thereof the fibrous product preferably being a hygiene and cleaning product, wherein the fibrous product comprises - at least one top ply with a first embossing pattern, - at least one middle ply embossed with second embossing protuberances, - at least one bottom ply being bonded to both the at least one top ply and the at least one middle ply at bonding regions characterized in that - the first embossing pattern of the at least one top ply forms pillow-like chambers at least partially surrounded by the first embossing protuberances; - the at least one middle ply is embossed in register with the at least one top ply so that second embossing protuberances of the at least one middle ply nest into the pillow-like chambers of the at least one top ply; and - the at least one bottom ply is in register with the at least one top ply (12; wherein - the at least one bottom ply comprises non-embossed areas and embossed areas preferably provided with a micro-embossing pattern; and - whereby the unembossed areas of the bottom ply are in register with the top ply and the middle ply. - at least one top ply with a first embossing pattern, - at least one middle ply embossed with second embossing protuberances, - at least one bottom ply being bonded to both the at least one top ply and the at least one middle ply at bonding regions characterized in that - the first embossing pattern of the at least one top ply forms pillow-like chambers at least partially surrounded by the first embossing protuberances; - the at least one middle ply is embossed in register with the at least one top ply so that second embossing protuberances of the at least one middle ply nest into the pillow-like chambers of the at least one top ply; and - the at least one bottom ply is in register with the at least one top ply (12; wherein - the at least one bottom ply comprises non-embossed areas and embossed areas preferably provided with a micro-embossing pattern; and - whereby the unembossed areas of the bottom ply are in register with the top ply and the middle ply.
An inhalable dry powder formulation comprising a therapeutically effective amount of a glucagon-like peptide-1 (GLP-1) molecule for use in pulmonary administration in the treatment of hyperglycemia and/or diabetes in a patient, by prandial administration of said formulation, wherein the formulation prevents or reduces adverse effects selected from the group consisting of nausea, vomiting and profuse sweating.
An aluminosilicate zeolite having an alloyed bimetallic cluster encapsulated in the pores of the aluminosilicate zeolite, wherein the aluminosilicate zeolite is a small pore zeolite having a CHA, ERI, GIS, KFI, LEV, LTA, RTH, or SOD framework type; or wherein the aluminosilicate zeolite is a medium pore zeolite having an EUO, FER, HEU, MEL, MFI, MFS, MTT, MTW, or TON framework type.
A signal monitoring method for a wavelength selective switch WSS, wherein after a wavelength division multiplexing WDM signal transmitted from an input port in a WSS passes through an incidence grating, light of wavelengths that is comprised in the WDM signal is incident to different positions or areas on a first optical engine; and the method comprises: encoding a phase of the first optical engine based on the WDM signal, so that the WDM signal is split into a transmitted signal and a monitored signal after passing through the first optical engine, and the transmitted signal and the monitored signal are output at different emergence angles in a direction of an output port, wherein the monitored signal is input to a second optical engine disposed at an output-side grating, and energy of the transmitted signal is greater than that of the monitored signal, wherein the second optical engine is configured as a single MEMS micromirror; determining, in the monitored signal, monitored light of a specified wavelength that currently needs to be monitored; and controlling, based on an incidence angle at which the monitored light is incident to the second optical engine and an emergence angle at which the monitored light is output from the second optical engine, the second optical engine to rotate in a wavelength plane of the WDM signal, wherein the wavelength plane is a plane in which signal light of different wavelengths that is included in the WDM signal is spread out at different angles after the WDM signal passes through the incidence grating, so that the monitored light is output from the second optical engine at a preset angle, so that monitored light corresponding to different wavelengths is output in a time-sharing manner. encoding a phase of the first optical engine based on the WDM signal, so that the WDM signal is split into a transmitted signal and a monitored signal after passing through the first optical engine, and the transmitted signal and the monitored signal are output at different emergence angles in a direction of an output port, wherein the monitored signal is input to a second optical engine disposed at an output-side grating, and energy of the transmitted signal is greater than that of the monitored signal, wherein the second optical engine is configured as a single MEMS micromirror; determining, in the monitored signal, monitored light of a specified wavelength that currently needs to be monitored; and controlling, based on an incidence angle at which the monitored light is incident to the second optical engine and an emergence angle at which the monitored light is output from the second optical engine, the second optical engine to rotate in a wavelength plane of the WDM signal, wherein the wavelength plane is a plane in which signal light of different wavelengths that is included in the WDM signal is spread out at different angles after the WDM signal passes through the incidence grating, so that the monitored light is output from the second optical engine at a preset angle, so that monitored light corresponding to different wavelengths is output in a time-sharing manner.
A method for forming an article of manufacture using additive manufacturing, comprising: (a) rotating an object continuously about a horizontal axis using a first rotational stage, wherein the object is partially submerged in a bath of energy curable liquid formulation during the rotation; (b) controlling a rate of rotation of the object to achieve a desired radial thickness of a sub layer of uncured liquid formulation at a desired rotational location on the object; (c) directing an energy source to provide an energy dose onto the object at a desired rotational location, wherein the energy dose is configured to cure and solidify the sub layer; and repeating (a), (b) and (c) until a desired radial thickness of a cured liquid formulation layer is a achieved. (a) rotating an object continuously about a horizontal axis using a first rotational stage, wherein the object is partially submerged in a bath of energy curable liquid formulation during the rotation; (b) controlling a rate of rotation of the object to achieve a desired radial thickness of a sub layer of uncured liquid formulation at a desired rotational location on the object; (c) directing an energy source to provide an energy dose onto the object at a desired rotational location, wherein the energy dose is configured to cure and solidify the sub layer; and
Ensemble comprising a part of a wind turbine tower, a counterpart and an arrangement to position the part of the wind turbine tower in respect to the counterpart during installation, the arrangement comprising - a sensor to sense a position of the part of the tower, - means to transmit sensor information to a place in a certain distance from the sensor, - means to evaluate the sensor data, and - means to influence the position of the part of the tower in respect to the counterpart according to the evaluation of the sensor data, wherein the sensor comprises a magnet to attach the sensor to the part of the tower magnetically. - a sensor to sense a position of the part of the tower, - means to transmit sensor information to a place in a certain distance from the sensor, - means to evaluate the sensor data, and - means to influence the position of the part of the tower in respect to the counterpart according to the evaluation of the sensor data,
Tomb device, comprising a base part and comprising a plurality of characters (20, 22, 24) connected to the base part, wherein the characters (20, 22) are at least partly arranged on a plate-type inscription support element, which element is connected to the base part and articulated relative thereto, wherein the plate-type inscription support element is disposed on the base part rotatably about a rotational axis, characterized in that the plate-type inscription support element is a disc, in that the base part includes a base element and a cover disc disposed at a distance in front of a surface of the base element, in that the plate-type inscription support element is disposed at least partially in an intermediate space between the surface of the base element and the cover disc, wherein the cover disc covers merely a section of the disc.
A method for controlling access of a terminal to a shared network, comprising: receiving (501, 601), by an access network element, a first message sent by a mobility management network element, MME, wherein the first message comprises an overload message, wherein the access network element connects multiple public land mobile networks, PLMNs, and the MME belongs to one PLMN of multiple PLMNs; determining (503, 603), by the access network element, whether all the MMEs connected to the access network element in the one PLMN of the access network element are overloaded; using (504, 604), by the access network element, the one PLMN as a PLMN to which a terminal to be barred accessing the shared network belongs, if all the MMEs connected to the access network element itself in the one PLMN corresponding to the MME are overloaded; broadcasting (506, 606) access barring information and the one PLMN information, to instruct a terminal to determine, according to the broadcast access barring information and the one PLMN information, whether the terminal itself is barred from accessing the one PLMN. receiving (501, 601), by an access network element, a first message sent by a mobility management network element, MME, wherein the first message comprises an overload message, wherein the access network element connects multiple public land mobile networks, PLMNs, and the MME belongs to one PLMN of multiple PLMNs; determining (503, 603), by the access network element, whether all the MMEs connected to the access network element in the one PLMN of the access network element are overloaded; using (504, 604), by the access network element, the one PLMN as a PLMN to which a terminal to be barred accessing the shared network belongs, if all the MMEs connected to the access network element itself in the one PLMN corresponding to the MME are overloaded; broadcasting (506, 606) access barring information and the one PLMN information, to instruct a terminal to determine, according to the broadcast access barring information and the one PLMN information, whether the terminal itself is barred from accessing the one PLMN.
A separator for aluminum electrolytic capacitors interposed between paired electrodes, comprising a synthetic resin fiber; wherein the separator has porosity within a range of 65 to 85%, characterized by average pore size within a range of 0.5 to 25.0 μm, and Clark stiffness within a range of 1 to 10 cm 3 /100.
Assembly comprising a flange and a disc, wherein the disc has a brake band and a drum, said drum having an outer drum surface, said drum being suitable for receiving a bearing inside said drum, said disc being arranged between bearing and said flange and wherein the flange comprises an inner ring coupled with the disc and an outer ring able to be coupled with a wheel rim, said flange also comprising an intermediate portion having flange through openings defined by an opening edge, said opening edge comprises a radially most inner edge portion, wherein at least one portion of the outer surface of the drum of the disc is arranged radially outside of the edge portion of the flange opening arranged most radially inside.
A paint brush (201, 301) having a bristle cluster (207, 307) comprising bristles with a tip end terminating at a tip end terminus point and defining the maximum extent of the bristle cluster (207, 307) and a root end terminating at a root end terminus point, the paint brush also having a handle (203, 303) for holding the bristle cluster (207, 307), the root end of the bristle cluster (207, 307), which is remote from the tip end, being set into adhesive composition which defines a setting region by a set depth X, the bristle cluster (207, 307) comprising bristles of two or more different lengths, characterised in that, for a majority of the bristles the difference in length between a longest bristle having a length L4 and a shortest bristle having a length L5 is a selected range value Y, in which Y is less than X, such that all of the longer bristles with length L4 are maximally embedded into the setting region such that they extend from the root end terminus point to the tip end terminus point and some shorter bristles with length L5 are (a) maximally embedded into the setting region such that they commence at the root end terminus point and extend towards the tip end terminus point but terminate at a point away from the said tip end terminus point by a distance equal to L4 minus L5, while the remaining shorter bristles with length L5 either: (b) commence within the setting region at a distance away from the root end terminus point equal to L4 minus L5 and terminate at the tip of the end terminus point; or (c) lie within the cluster at points intermediate the extremes (a,b) specified above so ensuring that all bristles at the root end of the bristle cluster (207, 307) are embedded in the adhesive composition to at least some extent and so are positively set in the handle (203, 303). (b) commence within the setting region at a distance away from the root end terminus point equal to L4 minus L5 and terminate at the tip of the end terminus point; or (c) lie within the cluster at points intermediate the extremes (a,b) specified above so ensuring that all bristles at the root end of the bristle cluster (207, 307) are embedded in the adhesive composition to at least some extent and so are positively set in the handle (203, 303).
A medical tube comprising: a tube wall having a first end and a second end, and a heater wire (2, 7), characterised in that the medical tube further comprises a tube recess provided in an outer surface of said tube wall near, or at, one of said first end or said second end, wherein said heater wire (2, 7) is wrapped around said tube wall and passes over said tube recess such that said heater wire (2, 7) does not contact said tube wall in the area of said tube recess. a tube wall having a first end and a second end, and a heater wire (2, 7), characterised in that the medical tube further comprises a tube recess provided in an outer surface of said tube wall near, or at, one of said first end or said second end, wherein said heater wire (2, 7) is wrapped around said tube wall and passes over said tube recess such that said heater wire (2, 7) does not contact said tube wall in the area of said tube recess.
A computing device comprising: one or more computer processors; and a memory comprising instructions that when executed by the one or more computer processors cause the one or more computer processors to perform the following steps: receive an Internet protocol, IP, address of a customer network of a plurality of customer networks connected to a cloud exchange; configure a time synchronization server connected to the cloud exchange with a Virtualized Local Area Network, VLAN, associated with the IP address of the customer network, the time synchronization server comprising one or more timing processes executed by the time synchronization server that provide a plurality of instances that provide a time synchronization service; and configure the time synchronization server with a Virtual Routing and Forwarding, VRF, or a network namespace for the VLAN, wherein the VRF or the network namespace includes a route to send time synchronization traffic between the customer network and a particular timing process that provides a particular instance of the plurality of instances that provide the time synchronization service. receive an Internet protocol, IP, address of a customer network of a plurality of customer networks connected to a cloud exchange; configure a time synchronization server connected to the cloud exchange with a Virtualized Local Area Network, VLAN, associated with the IP address of the customer network, the time synchronization server comprising one or more timing processes executed by the time synchronization server that provide a plurality of instances that provide a time synchronization service; and configure the time synchronization server with a Virtual Routing and Forwarding, VRF, or a network namespace for the VLAN, wherein the VRF or the network namespace includes a route to send time synchronization traffic between the customer network and a particular timing process that provides a particular instance of the plurality of instances that provide the time synchronization service.
A part, comprising: at least two work pieces (22, 24) of steel welded together at a weld seam; the weld seam having a laser metal deposition layer applied via laser metal deposition of a powder of nickel and/or iron after the at least two work pieces (22, 24) are welded together at the weld seam, the laser metal deposition layer including at least one of nickel and iron and being substantially entirely free of silicate islands; and a painted, phosphated or electrocoated coating bonded with at least a portion of the substantially entirely silicate island free laser metal deposition layer of the weld seam. at least two work pieces (22, 24) of steel welded together at a weld seam; the weld seam having a laser metal deposition layer applied via laser metal deposition of a powder of nickel and/or iron after the at least two work pieces (22, 24) are welded together at the weld seam, the laser metal deposition layer including at least one of nickel and iron and being substantially entirely free of silicate islands; and a painted, phosphated or electrocoated coating bonded with at least a portion of the substantially entirely silicate island free laser metal deposition layer of the weld seam.
An integrated circuit which, in operation, controls a process of a mobile station to communicate with a base station in a communication system, the communication being re-configured from a source uplink/downlink configuration to a target uplink/downlink configuration, the process comprising: receiving a command for reconfiguration from a source uplink/downlink configuration to a target uplink/downlink configuration, wherein the source uplink/downlink configuration is one out of a plurality of uplink/downlink configurations and the target uplink/downlink configuration is one of the plurality of uplink/downlink configurations, the plurality of uplink/downlink configurations being configured for Time Division Duplex, TDD, communication; in an event that the communication is to be reconfigured for a subframe N at the beginning of a radio frame, performing physical uplink shared channel, PUSCH, power control based on a transmit power control, TPC, command for PUSCH transmission, including: applying the source uplink/downlink configuration in the PUSCH power control based on the TPC command for PUSCH transmission which is received up to and including subframe N, and applying the target uplink/downlink configuration in the PUSCH power control based on the TPC command for PUSCH transmission which is received from subframe N+1 onward; and transmitting the PUSCH based on the performed PUSCH power control. receiving a command for reconfiguration from a source uplink/downlink configuration to a target uplink/downlink configuration, wherein the source uplink/downlink configuration is one out of a plurality of uplink/downlink configurations and the target uplink/downlink configuration is one of the plurality of uplink/downlink configurations, the plurality of uplink/downlink configurations being configured for Time Division Duplex, TDD, communication; in an event that the communication is to be reconfigured for a subframe N at the beginning of a radio frame, performing physical uplink shared channel, PUSCH, power control based on a transmit power control, TPC, command for PUSCH transmission, including: applying the source uplink/downlink configuration in the PUSCH power control based on the TPC command for PUSCH transmission which is received up to and including subframe N, and applying the target uplink/downlink configuration in the PUSCH power control based on the TPC command for PUSCH transmission which is received from subframe N+1 onward; and applying the source uplink/downlink configuration in the PUSCH power control based on the TPC command for PUSCH transmission which is received up to and including subframe N, and applying the target uplink/downlink configuration in the PUSCH power control based on the TPC command for PUSCH transmission which is received from subframe N+1 onward; and transmitting the PUSCH based on the performed PUSCH power control.