mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transfer of a network subscription profile from a first subscriber device to a second subscriber device , the method being performed by the first subscriber device , the method comprising: establishing (S102) a direct communication between the first subscriber device and the second subscriber device , wherein establishing a direct communication comprises establishing a secure binding with the second subscriber device ; obtaining (S104) a request from the second subscriber device for transfer of the network subscription profile ; obtaining (S106) end-user confirmation of the transfer of the network subscription profile to the second subscriber device ; and deleting (S112) the network subscription profile from the first subscriber device after transfer of the network subscription profile to the second subscriber device . establishing (S102) a direct communication between the first subscriber device and the second subscriber device , wherein establishing a direct communication comprises establishing a secure binding with the second subscriber device ; obtaining (S104) a request from the second subscriber device for transfer of the network subscription profile ; obtaining (S106) end-user confirmation of the transfer of the network subscription profile to the second subscriber device ; and deleting (S112) the network subscription profile from the first subscriber device after transfer of the network subscription profile to the second subscriber device .
Appliance for the mechanical processing of a workpiece - in particular a metallic one - with a turning device and a holding adapter - equipped with a collet chuck in particular - whereby the turning device and holding adapter are mechanically coupled together so that the turning device can rotate the holding adapter around a rotational axis , whereby the holding adapter holds a clamping part for the mechanical processing of the workpiece to enable the rotational axis and a longitudinal axis of the clamping part to form an angle greater than zero degrees, and whereby a balancing device is available to offset the imbalance caused by the clamping part , characterized by the fact that the holding adapter has a circular cylindrical design, an end face of the holding adapter is cut angularly below a predeterminable angle, a diameter of one of the described holding adapter circles and that of one of the described balancing device circles are essentially the same, the holding adapter features a flange bushing and clamping bushing , that the flange bushing encloses the clamping bushing , in a clamped state, the clamping bushing exerts a radial force on the clamping part , an end face of the flange bushing is chamfered in its function as an end face of the holding adapter, and the holding adapter has a larger axial extension along the rotational axis than the balancing device . workpiece - in particular a metallic one - with a turning device and a holding adapter - equipped with a collet chuck in particular - whereby the turning device and holding adapter are mechanically coupled together so that the turning device can rotate the holding adapter around a rotational axis , whereby the holding adapter holds a clamping part for the mechanical processing of the workpiece to enable the rotational axis and a longitudinal axis of the clamping part to form an angle greater than zero degrees, and whereby a balancing device is available to offset the imbalance caused by the clamping part , characterized by the fact that the holding adapter has a circular cylindrical design, an end face of the holding adapter is cut angularly below a predeterminable angle, a diameter of one of the described holding adapter circles and that of one of the described balancing device circles are essentially the same, the holding adapter features a flange bushing and clamping bushing , that the flange bushing encloses the clamping bushing , in a clamped state, the clamping bushing exerts a radial force on the clamping part , an end face of the flange bushing is chamfered in its function as an end face of the holding adapter, and the holding adapter has a larger axial extension along the rotational axis than the balancing device .
A method comprising: transmitting, by a base station of a first public land mobile network (PLMN) to a wireless device, a message comprising an indication of a failure of a second PLMN comprising a PLMN identifier of the second PLMN; and receiving, by the base station from the wireless device, a registration request indicating the failure of the second PLMN, the registration request comprising: one or more of a subscriber concealed identifier, SUCI, or a permanent equipment identifier, PEI, of the wireless device; and the PLMN identifier of the second PLMN. transmitting, by a base station of a first public land mobile network (PLMN) to a wireless device, a message comprising an indication of a failure of a second PLMN comprising a PLMN identifier of the second PLMN; and receiving, by the base station from the wireless device, a registration request indicating the failure of the second PLMN, the registration request comprising: one or more of a subscriber concealed identifier, SUCI, or a permanent equipment identifier, PEI, of the wireless device; and the PLMN identifier of the second PLMN. one or more of a subscriber concealed identifier, SUCI, or a permanent equipment identifier, PEI, of the wireless device; and the PLMN identifier of the second PLMN.
A latency control method of a transmitter apparatus adapted for transmission of a plurality of packets under clear channel assessment requirements and latency requirements, the method comprising: determining a maximum required time (303, 403a-b) for clear channel assessment for the plurality of packets; determining a duration of time related to the determined maximum required time (303, 403a-b); and enforcing , for each packet of the plurality of packets, the determined duration of time to elapse after completion of transmission of the packet , before transmission of a subsequent packet of the plurality of packets is initiated. determining a maximum required time (303, 403a-b) for clear channel assessment for the plurality of packets; determining a duration of time related to the determined maximum required time (303, 403a-b); and enforcing , for each packet of the plurality of packets, the determined duration of time to elapse after completion of transmission of the packet , before transmission of a subsequent packet of the plurality of packets is initiated.
A component depositing device for depositing a specified amount of bulk components into a case , the component depositing device comprising: (a) a storage container configured to store the components in a bulk state; (b) a depositing path integrated with the storage container , extending in a vertical direction, and configured to deposit the components into the case from a lower end of the depositing path ; (c) multiple magnets arranged in a circle at a specified angular pitch along a side wall on an outside of the storage container , each of the multiple magnets being configured to pull the components stored in the storage container towards the side wall; and (d) a magnet rotating device configured to rotate the multiple magnets , wherein the component depositing device is configured to rotate the multiple magnets around the circle using the magnet rotating device , such that the components stored in the storage container are conveyed by the multiple magnets above the depositing path along the side wall, the conveyed components are stopped by a stopping wall provided above the depositing path , and the stopped components fall onto the depositing path due to their own weight, and after a specified amount of components has been deposited into the case , stop the multiple magnets after reverse-rotating the multiple magnets by the set angular pitch using the magnet rotating device . (a) a storage container configured to store the components in a bulk state; (b) a depositing path integrated with the storage container , extending in a vertical direction, and configured to deposit the components into the case from a lower end of the depositing path ; (c) multiple magnets arranged in a circle at a specified angular pitch along a side wall on an outside of the storage container , each of the multiple magnets being configured to pull the components stored in the storage container towards the side wall; and (d) a magnet rotating device configured to rotate the multiple magnets ,
Robot system, in particular semi-autonomous robot system, having at least one driven movable, in particular driveable, robot , which is provided to at least substantially completely cover at least one work region during a processing cycle, having at least one capturing unit which is provided to capture at least one distance in the work region that has been travelled by the robot , having at least one open-loop and/or closed-loop control unit which is configured at least to control the robot within the work region , wherein the open-loop and/or closed-loop control unit has at least one virtual map of the work region and/or is configured to generate a virtual map of the work region , wherein the open-loop and/or closed-loop control unit is configured to transfer the captured distance travelled by the robot into the virtual map , and having at least one user interaction unit , characterized in that the user interaction unit is configured to enable, in particular after a processing cycle of the robot , at least one assessment of at least one partial section of the distance travelled by the robot , in particular within the virtual map , by way of a user and to transmit it to the open-loop and/or closed-loop control unit .
A curable petroleum resin comprising 30-70 wt% of a repeating unit derived from a petroleum resin monomer (A), 10-40 wt% of a repeating unit derived from a silane monomer (B) and 10-40 wt% of a repeating unit derived from a styrene-based monomer (C) based on 100 wt% of the total repeating units.
A method to fabricate hierarchical graded materials, comprising: providing a reservoir of functionalized particles; mixing at least some of the functionalized particles using a mixer in the print head having a mixed fluid volume control on an order of a voxel to produce mixed functionalized particles; actuating a print head to deposit the mixed functionalized particles on a substrate; and applying a stimulus to the mixed functionalized particles to reactively bond the functionalized particles. providing a reservoir of functionalized particles; mixing at least some of the functionalized particles using a mixer in the print head having a mixed fluid volume control on an order of a voxel to produce mixed functionalized particles; actuating a print head to deposit the mixed functionalized particles on a substrate; and applying a stimulus to the mixed functionalized particles to reactively bond the functionalized particles.
Sealing segment assembly (10; 110) for a turbomachine, in particular a gas turbine, comprising a first sealing support and a second sealing support (12b; 112b) which are arranged next to one another in the circumferential direction (UR), the first sealing support (12a; 112a) having a first support base (14a; 114a) and at least one first sealing body which is connected to the first support base (14a; 114a), and the second sealing support (12b; 112b) having a second support base (14b; 114b) and at least one second sealing body which is connected to the second support base (14b; 114b), the at least one first sealing body (16a; 116a) and the at least one second sealing body (16b; 116b) being formed by a plurality of cavities (30; 130) which are arranged next to one another, in particular regularly, in the circumferential direction (UR) and in the axial direction (AR), the cavities (30; 130) extending from the relevant support base (14a, 14b; 114a, 114b) in the radial direction (RR), the first support base (14a; 114a) and the second support base (14b; 114b) being couplable or coupled to one another in the circumferential direction (UR) by means of a plug-in connection assembly , at least one plug-in element which protrudes in the circumferential direction (UR) being formed on the first support base (14a; 114a), at least one socket being formed on the second support base (14b; 114b), which socket is designed to receive the at least one plug-in element of the adjacent first support base (14a; 114a), the plug -in element and the socket together forming the plug-in connection assembly , characterized in that the first support base (14a; 114a) and the second support base (14b; 114b) have a height (RH) in the radial direction (RR) which changes in the circumferential direction (UR), the height (RH) being greatest in the region of the plug-in connection assembly , and in that the first support base (14a; 114a), the at least one first sealing body (16a; 116a) and the plug-in element are formed in one piece and produced by an additive manufacturing process, and in that the second support base (14b; 114b), the at least one second sealing body (16b; 116b) and the socket are formed in one piece and produced by an additive manufacturing process.
A method for controlling terminal access, comprising: configuring , by a base station capable of providing a high-speed-railway dedicated network service for a terminal, an access barring rule for controlling terminal access; characterized in that the method further comprises: sending , by the base station, the access barring rule to the terminal, to enable the terminal to determine an access barring parameter corresponding to a current moving speed, according to preset correspondences between terminal moving speeds and access barring parameters, and enable the terminal to initiate access to the base station when the access barring parameter corresponding to the current moving speed satisfies a preset terminal access condition; wherein the access barring rule comprises the preset correspondences between the terminal moving speeds and access barring parameters. configuring , by a base station capable of providing a high-speed-railway dedicated network service for a terminal, an access barring rule for controlling terminal access; characterized in that the method further comprises: sending , by the base station, the access barring rule to the terminal, to enable the terminal to determine an access barring parameter corresponding to a current moving speed, according to preset correspondences between terminal moving speeds and access barring parameters, and enable the terminal to initiate access to the base station when the access barring parameter corresponding to the current moving speed satisfies a preset terminal access condition; wherein the access barring rule comprises the preset correspondences between the terminal moving speeds and access barring parameters. sending , by the base station, the access barring rule to the terminal, to enable the terminal to determine an access barring parameter corresponding to a current moving speed, according to preset correspondences between terminal moving speeds and access barring parameters, and enable the terminal to initiate access to the base station when the access barring parameter corresponding to the current moving speed satisfies a preset terminal access condition; wherein the access barring rule comprises the preset correspondences between the terminal moving speeds and access barring parameters.
Hub carrier comprising: a central part for carrying a hub for a wheel of a vehicle; an outer frame adapted to connect said hub carrier to a suspension of said vehicle; at least three spokes interposed between said central part and said outer frame , said at least three spokes being rigidly connected to said central part , said at least three spokes comprising respective end elements connected to said outer frame ; said hub carrier further comprising at least three sensors configured for detecting force and/or moment components acting on said hub ; characterized in that said respective end elements provide respective sliding spherical hinges for said at least three spokes . a central part for carrying a hub for a wheel of a vehicle; an outer frame adapted to connect said hub carrier to a suspension of said vehicle; at least three spokes interposed between said central part and said outer frame , said at least three spokes being rigidly connected to said central part , said at least three spokes comprising respective end elements connected to said outer frame ; said hub carrier further comprising at least three sensors configured for detecting force and/or moment components acting on said hub ; characterized in that said respective end elements provide respective sliding spherical hinges for said at least three spokes .
Weapon having a barrel cluster , comprising at least one, preferably a plurality of, weapon barrel(s) and having a breech , wherein only one of the weapon barrels (2-4) of the barrel cluster is aligned with the breech so as to be aligned in the barrel axis and only the one weapon barrel (2-4) at this point in time in terms of firing interacts with the breech , wherein the barrel cluster is mounted in a mounting , characterized in that the bearing points of the mounting are configured by stationary, mutually spaced-apart bezels .
A base station that communicates with a mobile station by using a plurality of physical channels, the base station comprising: a transmitting unit configured to transmit a reference signal to the mobile station as a first signal; a receiving unit configured to receive a second signal transmitted by the mobile station; an acquiring unit configured to acquire from the second signal, reception information generated by the mobile station according to reception state of the first signal; and a determining unit configured to determine a repetition count for each of the physical channels based on the acquired reception information, and acquire from a lookup table , an index value corresponding to the determined repetition counts; wherein, the transmitting unit is further configured to transmit a third signal including the index value indicating, for each of the physical channels, a repetition count for a fourth signal transmitted by the mobile station, and wherein the receiving unit is further configured to receive the fourth signal transmitted by the mobile station using a Physical Uplink Shared Channel (PUSCH). a transmitting unit configured to transmit a reference signal to the mobile station as a first signal; a receiving unit configured to receive a second signal transmitted by the mobile station; an acquiring unit configured to acquire from the second signal, reception information generated by the mobile station according to reception state of the first signal; and a determining unit configured to determine a repetition count for each of the physical channels based on the acquired reception information, and acquire from a lookup table , an index value corresponding to the determined repetition counts; wherein, the transmitting unit is further configured to transmit a third signal including the index value indicating, for each of the physical channels, a repetition count for a fourth signal transmitted by the mobile station, and wherein the receiving unit is further configured to receive the fourth signal transmitted by the mobile station using a Physical Uplink Shared Channel (PUSCH).
A filter manufacturing apparatus comprising: - a feed path adapted to continuously feed a filter material along a longitudinal transport direction ; - a forming device connected to a terminating end of the feed path and adapted to form the filter material into a continuous filter body and to deliver the formed continuous filter body, the forming device including: o a tubular element adapted to allow the filter material to pass therethrough to form the filter tow material into the continuous filter body; and o a steam generator adapted to produce steam, the steam generator being in fluid communication with the tubular element to supply steam to the filter material; - a drain channel in fluid communication with the tubular element adapted to drain fluid from the tubular element; characterized it that it further includes - a valve adapted to open and close the drain channel so as to allow or block discharge of fluid from the tubular element . - a feed path adapted to continuously feed a filter material along a longitudinal transport direction ; - a forming device connected to a terminating end of the feed path and adapted to form the filter material into a continuous filter body and to deliver the formed continuous filter body, the forming device including: o a tubular element adapted to allow the filter material to pass therethrough to form the filter tow material into the continuous filter body; and o a steam generator adapted to produce steam, the steam generator being in fluid communication with the tubular element to supply steam to the filter material; o a tubular element adapted to allow the filter material to pass therethrough to form the filter tow material into the continuous filter body; and o a steam generator adapted to produce steam, the steam generator being in fluid communication with the tubular element to supply steam to the filter material; - a drain channel in fluid communication with the tubular element adapted to drain fluid from the tubular element; characterized it that it further includes - a valve adapted to open and close the drain channel so as to allow or block discharge of fluid from the tubular element .
A composition comprising: nanoparticles having an average size of less than 1000 nm, said nanoparticles comprising (a) a poorly aqueous soluble polymer; (b) an ionizable active agent having a pKa; and (c) a counterion having an opposite charge as the ionizable active agent for said active, the counterion having a molecular weight of at least 200 Daltons, a Log P value of at least 2, and a pKa that is at least 1.5 units different than the pKa of said active, wherein the active agent and the counterion are present in the form of a salt, wherein said active agent in said nanoparticles is substantially non-crystalline, wherein said active agent exists as a solid solution of active agent homogeneously distributed throughout said polymer, wherein said polymer, said ionizable active agent, and said counterion collectively constitute at least 80 wt% of said nanoparticles, wherein the molar ratio of said ionizable active agent to said counterion having an opposite charge is at least 0.8 and wherein said salt form in pure form has a melt temperature that is 10°C less than the melt temperature of the non-ionized form of said active in pure form. (a) a poorly aqueous soluble polymer; (b) an ionizable active agent having a pKa; and (c) a counterion having an opposite charge as the ionizable active agent for said active, the counterion having a molecular weight of at least 200 Daltons, a Log P value of at least 2, and a pKa that is at least 1.5 units different than the pKa of said active, wherein the active agent and the counterion are present in the form of a salt, wherein said active agent in said nanoparticles is substantially non-crystalline, wherein said active agent exists as a solid solution of active agent homogeneously distributed throughout said polymer, wherein said polymer, said ionizable active agent, and said counterion collectively constitute at least 80 wt% of said nanoparticles, wherein the molar ratio of said ionizable active agent to said counterion having an opposite charge is at least 0.8 and wherein said salt form in pure form has a melt temperature that is 10°C less than the melt temperature of the non-ionized form of said active in pure form.