mhurhangee/ep-ind-claims huggingface dataset:
A method in a user equipment "UE" for managing use of dynamic power sharing for dual carrier operation, which includes respective communications via a master cell group and a secondary cell group, the method comprising: identifying an allowed tolerance corresponding to a maximum expected possible deviation between a power level at which the UE requests that a communication via the master cell group be set and an actual power level at which the corresponding communication via the master cell group is transmitted; determining a level of a lower bound of a maximum configured power of the secondary cell group, which enables the UE to meet emission requirements during the dual carrier operation for communications via each of the master cell group and the secondary cell group, as well as the total power constraints for any overall communications of the UE, the determination based on the allowed tolerance identified relative to any communication via the master cell group; and setting the lower bound of the maximum configured power for a carrier of the secondary cell group at the determined level. identifying an allowed tolerance corresponding to a maximum expected possible deviation between a power level at which the UE requests that a communication via the master cell group be set and an actual power level at which the corresponding communication via the master cell group is transmitted; determining a level of a lower bound of a maximum configured power of the secondary cell group, which enables the UE to meet emission requirements during the dual carrier operation for communications via each of the master cell group and the secondary cell group, as well as the total power constraints for any overall communications of the UE, the determination based on the allowed tolerance identified relative to any communication via the master cell group; and setting the lower bound of the maximum configured power for a carrier of the secondary cell group at the determined level.
Automatically controlled washing machine having a detergent inlet device embodied as a drawer in the housing that is accessible from the front, having at least one chamber (11, 12, 311, 312, 313, 411, 413, 511, 513, 611, 612, 613, 711, 712, 811, 813, 911, 1011, 1013) disposed in the front region of the drawer for manually measured addition of a portion of laundry treatment agent and with one or more reservoir tank(s) (17, 317, 417, 517, 518, 617, 717, 817, 917, 918, 1017) for liquid laundry treatment agent mounted inside the drawer, characterised in that chamber parts (20, 320, 420, 520, 620, 720, 820, 920, 1020) of the reservoir tank or tanks (17, 317, 417, 517, 518, 617, 717, 817, 917, 918, 1017) extend so far into the front region of the drawer that the chamber part or parts (20, 320, 420, 520, 620, 720, 820, 920, 1020) is or are located adjacent to the chamber or chambers (11, 12, 311, 312, 313, 411, 413, 511, 513, 611, 612, 613, 711, 712, 811, 813, 911, 1011, 1013) and has or have a closable refill opening (21, 321, 421, 521, 522, 621, 721, 821, 921, 922, 1021) disposed on their respective top sides and as close as possible to the front side of the drawer.
A method performed by a delivery node operative to adjust chunk size, the delivery node corresponding to a cache server, the method comprising: determining at least one measured performance characteristic associated with the network; dynamically adjusting a chunk size for caching each of a plurality of segments of at least a portion of content, the dynamic adjustment of the chunk size being based on the at least one measured performance characteristic associated with the network; and causing transmission of a content request, according to the dynamic adjustment of the chunk size, for at least one segment of the plurality of segments of at least the portion of the content; the method further comprising receiving a client request for the content; and the dynamic adjustment of the chunk size for caching each of the plurality of segments of at least the portion of the content being based on a number of client requests received for the content. determining at least one measured performance characteristic associated with the network; dynamically adjusting a chunk size for caching each of a plurality of segments of at least a portion of content, the dynamic adjustment of the chunk size being based on the at least one measured performance characteristic associated with the network; and causing transmission of a content request, according to the dynamic adjustment of the chunk size, for at least one segment of the plurality of segments of at least the portion of the content; the method further comprising receiving a client request for the content; and the dynamic adjustment of the chunk size for caching each of the plurality of segments of at least the portion of the content being based on a number of client requests received for the content.
A product comprising: cellulose from a microbe grown in a symbiotic colony of bacteria and yeast (SCOBY); wherein the product is a paper having one or more properties suitable for use as a cigarette rolling paper, the one or more properties being selected from: a burn rate in the range of 0.001-0.006 g/s; a porosity in the range of 1-10 CU; a tensile strength in the range of 10-35 N; a tension strength in the range of 1-10%; basis weight in the range of 10-40 GSM. a burn rate in the range of 0.001-0.006 g/s; a porosity in the range of 1-10 CU; a tensile strength in the range of 10-35 N; a tension strength in the range of 1-10%; basis weight in the range of 10-40 GSM.
Agitating device for a digester of a biogas plant, having a housing and a driving device for rotatably driving at least one agitator blade, wherein the driving device comprises a drive shaft and an electric drive motor, wherein the drive motor is accommodated sealed in the housing, characterized in that the drive motor comprises an outer, hollow stator and a rotary rotor which is configured at least partially hollow, centrally accommodated therein, wherein the rotor is rotatably supported on the housing and comprises a coupling device for non-rotatable coupling with the drive shaft to drive the at least one agitator blade by means of the drive shaft, and that the stator is equipped with a plurality of electric windings and the rotor, with a plurality of permanent magnets, and that the drive motor is configured as a direct drive, and the drive shaft is coupled gearless with the drive motor, wherein the internal diameter of the hollow part of the rotor is at least twice the size of the external diameter of the drive shaft.
An anti-biofouling system comprising an UV-emitting element, wherein the UV-emitting element comprises a UV radiation exit window, wherein the UV-emitting element at least partly encloses a light source configured to provide UV radiation, wherein the UV radiation exit window is configured to transmit at least part of the UV radiation of the light source, wherein the UV radiation exit window comprises an upstream window side and a downstream window side, wherein the UV-emitting element also at least partly encloses an optical sensor configured to sense radiation emanating from the downstream window side and originating from the light source, and configured to provide a corresponding optical sensor signal, wherein the anti-biofouling system is further configured to provide said UV radiation in dependence of said optical sensor signal.
An IL-6 antagonist for use in a method of treating hepcidin-mediated anemia of chronic inflammation in a patient, the method comprising administering a therapeutically effective amount of said IL-6 antagonist to said patient, wherein the patient has been determined to have at least one copy of the TMPRSS6 rs855791 major allele, optionally wherein this has been determined previously or wherein said method comprises an earlier step of determining whether said patient has at least one copy of the TMPRSS6 rs855791 major allele; and wherein the IL-6 antagonist is: (a) an anti-IL-6 antibody, or antigen-binding fragment or derivative thereof; or (b) an anti-IL-6R antibody, or antigen-binding fragment or derivative thereof, optionally tocilizumab or vobarilizumab. (a) an anti-IL-6 antibody, or antigen-binding fragment or derivative thereof; or (b) an anti-IL-6R antibody, or antigen-binding fragment or derivative thereof, optionally tocilizumab or vobarilizumab.
Escape route markings for an airplane, wherein said markings contain an afterglowing photoluminescent material, which is placed in multiple elements on the floor, wherein at least one element (40; 46; 52; 58) has a curved shape, characterized in that each curved element has a pre-defined radius of curvature, wherein the curved element is covered with a transparent material, wherein the curved element is cast into a transparent material.
Module for a streetlight, comprising: a system for identifying an orientation of a light sensor (8, 9), a printed circuit board on which lamps are arranged, a first interface which is arranged on the same side as the lamps, and a second interface on the side facing away from the lamps, wherein each of the interfaces (6, 7) can accommodate the light sensor (8, 9), wherein the system comprises the light sensor (8, 9) and an information processing unit which is configured to assign the light sensor (8, 9) to a first orientation or to a second orientation based on at least two measurements carried out at different times or on a comparison of relative spectral components, wherein the module is designed such that in the first orientation, directly incident daylight is detected by the light sensor (8, 9) and in the second orientation, reflected light is detected. a system for identifying an orientation of a light sensor (8, 9), a printed circuit board on which lamps are arranged, a first interface which is arranged on the same side as the lamps, and a second interface on the side facing away from the lamps, wherein each of the interfaces (6, 7) can accommodate the light sensor (8, 9), wherein the system comprises the light sensor (8, 9) and an information processing unit which is configured to assign the light sensor (8, 9) to a first orientation or to a second orientation based on at least two measurements carried out at different times or on a comparison of relative spectral components, wherein the module is designed such that in the first orientation, directly incident daylight is detected by the light sensor (8, 9) and in the second orientation, reflected light is detected.
A parameter indication method, performed by a receiving device in a multiple input multiple output, MIMO, communication system, wherein the method comprises: generating indication information for each of a plurality of antenna panels of a transmit device, wherein the indication information is used to indicate an adjustment parameter of each of the anenna panels, and the adjustment parameter comprises at least one of an amplitude adjustment parameter and a phase adjustment parameter; and sending the indication information to the transmit device, wherein the adjustment parameter of each antenna panel is generated based on a result of comparison between channel information corresponding to the antenna panel and channel information corresponding to a reference antenna panel. generating indication information for each of a plurality of antenna panels of a transmit device, wherein the indication information is used to indicate an adjustment parameter of each of the anenna panels, and the adjustment parameter comprises at least one of an amplitude adjustment parameter and a phase adjustment parameter; and sending the indication information to the transmit device, wherein the adjustment parameter of each antenna panel is generated based on a result of comparison between channel information corresponding to the antenna panel and channel information corresponding to a reference antenna panel.
Method for fail-safe operation of a process control system, wherein the process control system has one OPC server and at least one OPC client which communicate via a standardized OPC interface, as well as at least two redundantly operated control devices (40, 45) for process management which each communicate with the OPC server by means of a coupling device (33, 34), according to which a) the roles of the control devices (40, 45) are ascertained, one control device being operated as the main control device and the other control device being operated as the auxiliary control device; b) an item of status information containing the current role of the respective control device is provided for the OPC server by each control device (40, 45); c) in response to the status information of at least one of the control devices (40, 45) the main control device is detected by the OPC server; d) a list of variables with process variables therein generated by the OPC client is registered at the main control device under the control of the OPC server (30, 32), wherein the OPC client requests the OPC server (30, 32) to read the process variables in the list of variables from the main control device and to transmit them to the OPC client; and e) only the process variables which have been provided by the main control device are transmitted to the OPC client under the control of the OPC server (30, 32). a) the roles of the control devices (40, 45) are ascertained, one control device being operated as the main control device and the other control device being operated as the auxiliary control device; b) an item of status information containing the current role of the respective control device is provided for the OPC server by each control device (40, 45); c) in response to the status information of at least one of the control devices (40, 45) the main control device is detected by the OPC server; d) a list of variables with process variables therein generated by the OPC client is registered at the main control device under the control of the OPC server (30, 32), wherein the OPC client requests the OPC server (30, 32) to read the process variables in the list of variables from the main control device and to transmit them to the OPC client; and e) only the process variables which have been provided by the main control device are transmitted to the OPC client under the control of the OPC server (30, 32).
Pallet comprising at least the following components: - a first panel and a second panel extending parallel to the first panel, - a layer, arranged between the first panel and the second panel of at least one web extending along a first longitudinal extension direction (l 1), the web comprising a first ledge and a plurality of tube segments, wherein the tube segments - respectively comprise two cut ends (141, 142) which delimit the respective tube segment along a circumferential direction of the respective tube segment, and, and - respectively comprise two cut surfaces (143, 144) which delimit the respective tube segment along a second longitudinal extension direction (l 2) of the respective tube segment, wherein - the tube segments are mechanically connected to the first ledge by means of their cut ends (141,142), and are mechanically connected to the first panel and the second panel by means of their cut surfaces (143,144), wherein the tube segments of the at least one web respectively comprise two side members and a roof member mechanically connected to the side members, wherein the side members form with the roof member first internal angles (α) of 95° to 120°. - a first panel and a second panel extending parallel to the first panel, - a layer, arranged between the first panel and the second panel of at least one web extending along a first longitudinal extension direction (l 1), the web comprising a first ledge and a plurality of tube segments, wherein the tube segments - respectively comprise two cut ends (141, 142) which delimit the respective tube segment along a circumferential direction of the respective tube segment, and, and - respectively comprise two cut surfaces (143, 144) which delimit the respective tube segment along a second longitudinal extension direction (l 2) of the respective tube segment, wherein - the tube segments are mechanically connected to the first ledge by means of their cut ends (141,142), and are mechanically connected to the first panel and the second panel by means of their cut surfaces (143,144),
A method for dynamically allocating transmissions for a mobile terminal in a cellular telecommunication network to one of a plurality of carriers, each at a respective different frequency, at least one of the carriers using Multiple-Input, Multiple-Output, MIMO, with a diversity transmission technique, the method comprising the steps of: - evaluating conditions for radio reception by the mobile terminal; - providing a measure of the load of the carriers in the cellular telecommunication network; - obtaining information regarding a type of the mobile terminal; - identifying whether a service requested by the mobile terminal from the cellular telecommunication network is a Packet Switched, PS service; - allocating transmissions for the mobile terminal to a carrier of the at least one carrier using MIMO with diversity transmission technique, the allocation dependent upon a plurality of characteristics comprising the evaluated condition for radio reception, the provided measure of the load, the obtained information regarding a type and the identification of whether a PS service is requested. - evaluating conditions for radio reception by the mobile terminal; - providing a measure of the load of the carriers in the cellular telecommunication network; - obtaining information regarding a type of the mobile terminal; - identifying whether a service requested by the mobile terminal from the cellular telecommunication network is a Packet Switched, PS service; - allocating transmissions for the mobile terminal to a carrier of the at least one carrier using MIMO with diversity transmission technique, the allocation dependent upon a plurality of characteristics comprising the evaluated condition for radio reception, the provided measure of the load, the obtained information regarding a type and the identification of whether a PS service is requested.
A non-aqueous inkjet orange ink composition comprising a pigment, a pigment dispersant, and an organic solvent, wherein the pigment contains: C.I. Pigment Orange 36; and at least one pigment selected from C.I. Pigment Red 242, C.I. Pigment Red 254, and C.I. Pigment Orange 71. C.I. Pigment Orange 36; and at least one pigment selected from C.I. Pigment Red 242, C.I. Pigment Red 254, and C.I. Pigment Orange 71.
Device for holding objects, in particular for items of furniture or household appliances, comprising at least two spaced-apart hinges which can be secured to a carcass and which in each case mount a door in a pivotable manner by way of pivotable hinge parts, wherein the at least two hinges are connected to one another by way of at least one shaft, and at least one holder (40, 50, 60) for holding objects is fixed to the at least one shaft, characterized in that the at least two hinges are configured as a four-joint or seven-joint hinge and each hinge has a hinge housing, to which a cover is fixed, wherein the shaft is mounted between the two covers and the holder (40, 50, 60) for objects is held on the covers by way of the shaft.
Vehicle seat (1; 100), in particular a motor vehicle seat, with a) a seat part, b) a backrest, c) a kinematics system (10; 110) for transferring the vehicle seat (1; 100) from a use position, suitable for passenger transport, into an entry position and back, d) a drive apparatus (30; 130) for driving the kinematics system (10; 110), and e) a coupling apparatus (50; 150) for coupling the drive apparatus (30; 130) to the kinematics system (10; 110), the coupling apparatus (50; 150) having a pawl (62; 162) and a counter-element, in particular a pin (66; 166), it being possible for the pawl (62; 162) and the counter-element to be locked to one another in order to couple the drive apparatus (30; 130) to the kinematics system (10; 110), and it being possible for the pawl (62; 162) to be released from the counter-element by way of an actuation of the coupling apparatus (50; 150), as a result of which the drive apparatus (30; 130) can be decoupled from the kinematics system (10; 110), characterized in that the pawl (62; 162) is configured as a bracing pawl, it being possible for the pawl (62; 162) and the counter-element to be locked to one another beyond the self-locking action. a) a seat part, b) a backrest, c) a kinematics system (10; 110) for transferring the vehicle seat (1; 100) from a use position, suitable for passenger transport, into an entry position and back, d) a drive apparatus (30; 130) for driving the kinematics system (10; 110), and e) a coupling apparatus (50; 150) for coupling the drive apparatus (30; 130) to the kinematics system (10; 110), the coupling apparatus (50; 150) having a pawl (62; 162) and a counter-element, in particular a pin (66; 166), it being possible for the pawl (62; 162) and the counter-element to be locked to one another in order to couple the drive apparatus (30; 130) to the kinematics system (10; 110), and it being possible for the pawl (62; 162) to be released from the counter-element by way of an actuation of the coupling apparatus (50; 150), as a result of which the drive apparatus (30; 130) can be decoupled from the kinematics system (10; 110), characterized in that the pawl (62; 162) is configured as a bracing pawl, it being possible for the pawl (62; 162) and the counter-element to be locked to one another beyond the self-locking action.
A method of fabricating a composite structure for an aircraft including: - drawing a strip of resin film from a spool of resin film; - cutting the strip of resin film to a desired length; - drawing a strip of dry fiber reinforcement from a spool of the dry fiber reinforcement; - cutting the strip of dry fiber reinforcement to a desired length; - feeding the cut length of the resin film strip to a first compaction roller; - moving the first compaction roller along a surface of a substrate and thereby using the first roller to compact the cut length of the resin film strip against the substrate; - feeding the cut length of the dry fiber reinforcement to a second compaction roller; - moving the second compaction roller along the surface of the substrate and thereby using the second roller to compact the cut length of the dry fiber reinforcement against the substrate in alignment with the compacted resin film strip, and - independently controlling the compaction pressure applied by the first and second rollers (42a, 42b) to the resin film strip and the dry fiber reinforcement strip, respectively. - drawing a strip of resin film from a spool of resin film; - cutting the strip of resin film to a desired length; - drawing a strip of dry fiber reinforcement from a spool of the dry fiber reinforcement; - cutting the strip of dry fiber reinforcement to a desired length; - feeding the cut length of the resin film strip to a first compaction roller; - moving the first compaction roller along a surface of a substrate and thereby using the first roller to compact the cut length of the resin film strip against the substrate; - feeding the cut length of the dry fiber reinforcement to a second compaction roller; - moving the second compaction roller along the surface of the substrate and thereby using the second roller to compact the cut length of the dry fiber reinforcement against the substrate in alignment with the compacted resin film strip, and - independently controlling the compaction pressure applied by the first and second rollers (42a, 42b) to the resin film strip and the dry fiber reinforcement strip, respectively.