mhurhangee/patent-ind-claim-en huggingface dataset:
Device for compensating for tolerances between two components to be connected to one another, having - a hollow-cylindrical base element , - a hollow-cylindrical compensating element which enters into a first threaded engagement (G1) with the base element and which, by way of rotation relative to the base element , is movable from a starting position (AP1) into a compensation position (AP2), and - a connecting element which extends through a first hollow space (H1) of the device and which serves for connection of the two components , wherein the connecting element enters into a second threaded engagement (G2) with one of the two components and/or a first nut element , wherein a second nut element is arranged in a recess of the compensating element in such a way that, when the connecting element is screwed into the device , said second nut element enters into a third threaded engagement (G3) with the connecting element , wherein, as a consequence of said third threaded engagement (G3), a torque is exertable on the second nut element such that, when the connecting element is screwed further into one of the components and/or into the first nut element , the second nut element is movable at least sectionally independently of the compensating element and axially relative to the latter in the direction of a flange surface of the compensating element counter to the insertion direction of the connecting element . - a hollow-cylindrical base element , - a hollow-cylindrical compensating element which enters into a first threaded engagement (G1) with the base element and which, by way of rotation relative to the base element , is movable from a starting position (AP1) into a compensation position (AP2), and - a connecting element which extends through a first hollow space (H1) of the device and which serves for connection of the two components , wherein the connecting element enters into a second threaded engagement (G2) with one of the two components and/or a first nut element , wherein a second nut element is arranged in a recess of the compensating element in such a way that, when the connecting element is screwed into the device , said second nut element enters into a third threaded engagement (G3) with the connecting element , wherein, as a consequence of said third threaded engagement (G3), a torque is exertable on the second nut element such that, when the connecting element is screwed further into one of the components and/or into the first nut element , the second nut element is movable at least sectionally independently of the compensating element and axially relative to the latter in the direction of a flange surface of the compensating element counter to the insertion direction of the connecting element .
A method of manufacturing a stator airfoil assembly having a tip end wall, the method comprising: forming an interior wall of a stator airfoil using an additive manufacturing technique; forming an exterior wall of the stator airfoil using the additive manufacturing technique forming a forward flange of the tip end wall over a cooling air opening of the stator airfoil using the additive manufacturing technique, wherein the flange is disposed radially over the opening such that cooling air flows around the flange to enter into the airfoil; and forming a plurality of internal ribs between the interior wall and the exterior wall using the additive manufacturing technique, wherein a cooling air circuit is formed in a space between the interior wall and the exterior wall, and wherein the interior wall, the exterior wall, and the internal ribs are formed simultaneously as an integral structure by using the additive manufacturing technique. forming an interior wall of a stator airfoil using an additive manufacturing technique; forming an exterior wall of the stator airfoil using the additive manufacturing technique forming a forward flange of the tip end wall over a cooling air opening of the stator airfoil using the additive manufacturing technique, wherein the flange is disposed radially over the opening such that cooling air flows around the flange to enter into the airfoil; and forming a plurality of internal ribs between the interior wall and the exterior wall using the additive manufacturing technique, wherein a cooling air circuit is formed in a space between the interior wall and the exterior wall, and wherein the interior wall, the exterior wall, and the internal ribs are formed simultaneously as an integral structure by using the additive manufacturing technique.
A method for sending an Ethernet frame, wherein the method comprises: receiving, by a first network apparatus , a first common public radio interface, CPRI, data stream by using a CPRI interface of the first network apparatus, wherein the first CPRI data stream is sent by a first apparatus and the first apparatus is a baseband processing unit, BBU, or a radio remote unit, RRU; generating , by the first network apparatus, a segment of the first CPRI data stream according to the received first CPRI data stream; generating , by the first network apparatus, an Ethernet frame, wherein the Ethernet frame comprises the segment of the first CPRI data stream and a CPRI data identifier, and the CPRI data identifier is used to indicate that the Ethernet frame carries CPRI data; and determining, by the first network apparatus, a first value according to a frequency of a clock device of the first apparatus and a frequency of a clock device of the first network apparatus, wherein the first value is a function of the frequency of the clock device of the first network apparatus and the frequency of the clock device of the first apparatus; sending , by the first network apparatus, the generated Ethernet frame to a second network apparatus by using an Ethernet interface of the first network apparatus, wherein the Ethernet frame further comprises the first value, and wherein the frequency of the clock device of the first network apparatus is equal to the frequency of the clock device of the second network apparatus. receiving, by a first network apparatus , a first common public radio interface, CPRI, data stream by using a CPRI interface of the first network apparatus, wherein the first CPRI data stream is sent by a first apparatus and the first apparatus is a baseband processing unit, BBU, or a radio remote unit, RRU; generating , by the first network apparatus, a segment of the first CPRI data stream according to the received first CPRI data stream; generating , by the first network apparatus, an Ethernet frame, wherein the Ethernet frame comprises the segment of the first CPRI data stream and a CPRI data identifier, and the CPRI data identifier is used to indicate that the Ethernet frame carries CPRI data; and determining, by the first network apparatus, a first value according to a frequency of a clock device of the first apparatus and a frequency of a clock device of the first network apparatus, wherein the first value is a function of the frequency of the clock device of the first network apparatus and the frequency of the clock device of the first apparatus; sending , by the first network apparatus, the generated Ethernet frame to a second network apparatus by using an Ethernet interface of the first network apparatus, wherein the Ethernet frame further comprises the first value, and wherein the frequency of the clock device of the first network apparatus is equal to the frequency of the clock device of the second network apparatus.
A method , comprising: at a device having one or more processors, memory, and a display: receiving a communication associated with a respective application; displaying a short version of a notification that corresponds to the communication, wherein the short version of the notification includes first information that includes content that is contained in the communication; identifying second information relevant to and distinct from the first information included in the short version of the notification, wherein the second information includes content that is not contained in the communication; while displaying the short version of the notification, receiving a user input invoking a long version of the notification, wherein the user input invoking the long version of the communication is distinct from a user input for invoking the application associated with the communication; and, in response to receiving the user input invoking the long version of the notification, displaying a first long version of the notification, wherein the first long version of the notification includes at least the first information included in the short version of the notification and the identified second information relevant to and distinct from the first information included in the short version of the notification. receiving a communication associated with a respective application; displaying a short version of a notification that corresponds to the communication, wherein the short version of the notification includes first information that includes content that is contained in the communication; identifying second information relevant to and distinct from the first information included in the short version of the notification, wherein the second information includes content that is not contained in the communication; while displaying the short version of the notification, receiving a user input invoking a long version of the notification, wherein the user input invoking the long version of the communication is distinct from a user input for invoking the application associated with the communication; and, in response to receiving the user input invoking the long version of the notification, displaying a first long version of the notification, wherein the first long version of the notification includes at least the first information included in the short version of the notification and the identified second information relevant to and distinct from the first information included in the short version of the notification.
A service processing method performed by a user equipment comprising at least one telephone card, the method comprises: • Registering with an Internet Protocol, IP, multimedia subsystem, IMS, network by using a first international mobile subscriber identity, IMSI, corresponding to a first telephone card, and obtaining a first globally routable user agent uniform resource identifier, GRUU (step 101); and • if the user equipment saves a mapping relationship between the first IMSI and a second GRUU, and the second GRUU and the first GRUU have a same IP multimedia public identity, IMPU, configuring a first supplementary service to a supplementary service the same as a second supplementary service (step 102), wherein • the first supplementary service is a supplementary service corresponding to the first GRUU, and the second supplementary service is a supplementary service corresponding to the second GRUU. • Registering with an Internet Protocol, IP, multimedia subsystem, IMS, network by using a first international mobile subscriber identity, IMSI, corresponding to a first telephone card, and obtaining a first globally routable user agent uniform resource identifier, GRUU (step 101); and • if the user equipment saves a mapping relationship between the first IMSI and a second GRUU, and the second GRUU and the first GRUU have a same IP multimedia public identity, IMPU, configuring a first supplementary service to a supplementary service the same as a second supplementary service (step 102), wherein • the first supplementary service is a supplementary service corresponding to the first GRUU, and the second supplementary service is a supplementary service corresponding to the second GRUU.
An implantable medical lead comprising: a lead body comprising an interior surface defining a lumen , wherein the lead body defines a longitudinal axis (L); an inner member within the lumen, wherein the inner member is configured to rotate about the longitudinal axis and rotate relative to the interior surface; a dilator coupled to the inner member, wherein: the dilator is configured to rotate relative to the interior surface, the inner member is configured to transmit a torque to the dilator when the inner member rotates around the longitudinal axis, the dilator is configured to penetrate tissue when the dilator receives the torque and the dilator contacts the tissue, and the dilator includes a dilator electrode configured to provide stimulation to the tissue when the dilator penetrates the tissue; and a fixation member attached to a distal end of the lead body, wherein the fixation member is configured to secure the distal end of the lead body to the tissue. a lead body comprising an interior surface defining a lumen , wherein the lead body defines a longitudinal axis (L); an inner member within the lumen, wherein the inner member is configured to rotate about the longitudinal axis and rotate relative to the interior surface; a dilator coupled to the inner member, wherein: the dilator is configured to rotate relative to the interior surface, the inner member is configured to transmit a torque to the dilator when the inner member rotates around the longitudinal axis, the dilator is configured to penetrate tissue when the dilator receives the torque and the dilator contacts the tissue, and the dilator includes a dilator electrode configured to provide stimulation to the tissue when the dilator penetrates the tissue; and the dilator is configured to rotate relative to the interior surface, the inner member is configured to transmit a torque to the dilator when the inner member rotates around the longitudinal axis, the dilator is configured to penetrate tissue when the dilator receives the torque and the dilator contacts the tissue, and the dilator includes a dilator electrode configured to provide stimulation to the tissue when the dilator penetrates the tissue; and a fixation member attached to a distal end of the lead body, wherein the fixation member is configured to secure the distal end of the lead body to the tissue.
A method for wireless communication at a user equipment, UE, comprising: receiving an indication of a configuration for a control resource set used for a single carrier waveform transmission, the control resource set comprising one or more pilot regions and one or more control channel regions corresponding to the one or more pilot regions, the one or more pilot regions and the one or more control channel regions spanning a bandwidth of the single carrier waveform transmission; monitoring , based at least in part on the received indication of the configuration, the one or more pilot regions of the control resource set for a pilot signal for the UE, wherein each of the one or more pilot regions is time division multiplexed with a corresponding one of the one or more control channel regions; and decoding , based at least in part on the pilot signal, a control channel signal for the UE received in a first control channel region of the one or more control channel regions of the control resource set. receiving an indication of a configuration for a control resource set used for a single carrier waveform transmission, the control resource set comprising one or more pilot regions and one or more control channel regions corresponding to the one or more pilot regions, the one or more pilot regions and the one or more control channel regions spanning a bandwidth of the single carrier waveform transmission; monitoring , based at least in part on the received indication of the configuration, the one or more pilot regions of the control resource set for a pilot signal for the UE, wherein each of the one or more pilot regions is time division multiplexed with a corresponding one of the one or more control channel regions; and decoding , based at least in part on the pilot signal, a control channel signal for the UE received in a first control channel region of the one or more control channel regions of the control resource set.
A helical conveyor , comprising a drivable endless conveyor belt having a transport section for transporting products where the conveyor belt follows at least partly a helical path between a lower end and an upper end of the transport section and a return section where the conveyor belt follows a path between the lower end and the upper end outside the transport section, a lower end reverse guide for turning the conveyor belt upside down and reverting its direction of movement between the transport section and the return section at the lower end of the transport section and an upper end reverse guide for turning the conveyor belt upside down and reverting its direction of movement between the transport section and the return section at the upper end of the transport section, wherein the return section leaves the upper end through a horizontally oriented upper return section portion and the return section leaves the lower end through a horizontally oriented lower return section portion , wherein the return section has an upwardly directed return section portion which forms a connection between the upper return section portion and the lower return section portion and extends at least partly outside the helical path as seen from above, characterized in that the upper end lies at an end of the helical path and the return section leaves the upper end tangentially as seen from above and extends in outward direction from the helical path as seen from the upper end .
A computer-implemented method comprising: validating , by one or more processors, one or more inputs to one or more steps in a process flow by verifying at least one of a hash and a digital signature of each of the one or more inputs, wherein the process flow is a design flow for at least one intellectual property, IP , block in a semiconductor; and generating , by one or more processors, a digital signature for each step from the one or more steps in the process flow, wherein the digital signature covers an output of said each step and the one or more inputs to said each step, wherein the digital signature is incorporated into a chain of digital signatures that is used to verify the process flow, and wherein the chain of digital signatures comprises at least one of hashes and digital signatures of test data and test results of the at least one IP block. validating , by one or more processors, one or more inputs to one or more steps in a process flow by verifying at least one of a hash and a digital signature of each of the one or more inputs, wherein the process flow is a design flow for at least one intellectual property, IP , block in a semiconductor; and generating , by one or more processors, a digital signature for each step from the one or more steps in the process flow, wherein the digital signature covers an output of said each step and the one or more inputs to said each step, wherein the digital signature is incorporated into a chain of digital signatures that is used to verify the process flow, and wherein the chain of digital signatures comprises at least one of hashes and digital signatures of test data and test results of the at least one IP block.
Assembly for an axial turbomachine compressor (4; 6), said assembly comprising: - a rotor with at least one annular row of rotor blades (24; 124), - a stator casing (28; 128; 228; 328) surrounding the row of rotor blades (24; 124), the assembly being designed such that, when the turbomachine is in operation, the movement of the blades (24; 124) creates leakage vortexes between the casing (28; 128; 228; 328) and the blades (24; 124), characterized in that the casing (28; 128; 228; 328) includes a device (32; 132; 232; 332) for generating counter-vortexes (38; 138; 238) at the leakage vortexes , the device (32; 132; 232; 332) being designed such that, when in operation, the counter-vortexes (38; 138; 238) rotate in a direction opposite the direction of rotation of the leakage vortexes . - a rotor with at least one annular row of rotor blades (24; 124), - a stator casing (28; 128; 228; 328) surrounding the row of rotor blades (24; 124),
A method for producing a silicon compound containing an iodophenyl group, comprising substituting iodine for a trialkylsilyl ((R 0 ) 3 Si) group bonded to a phenyl group by using an iodine-containing electrophilic reagent (I-X) as shown by the following reaction equation: wherein all of R 0 's may be identical to or different from each other and each represent an alkyl group having 1 to 6 carbon atoms; R 1 represents a single bond or a divalent organic group; R 2 represents an organic group having 1 to 10 carbon atoms; R 3 represents an organic group having 1 to 10 carbon atoms; R represents an organic group having 1 to 6 carbon atoms; n0 is 1, 2, or 3, n1 is 1, 2, or 3, n2 is 0, 1, or 2, and n3 is 0, 1, or 2, provided that 1≤n1+n3≤3; and X represents a counter substituent of iodine, acting as an electrophilic reactive species.
A particulate filter disposed in an exhaust path of an internal combustion engine and used to collect particulate matter from exhaust gas discharged from the internal combustion engine , the particulate filter comprising: a substrate having a wall flow structure including a porous partition wall partitioning an inlet cell that includes an open end portion on an exhaust gas inflow side and an outlet cell that is adjacent to the inlet cell and has an open end portion on an exhaust gas outflow side; and a wash coat layer formed inside the partition wall , wherein the wash coat layer is held on surfaces of internal pores of the partition wall , among the internal pores of the partition wall , an average filling rate A of the wash coat layer held in a first pore group having a pore diameter of 5 μm or more but less than 10 μm, an average filling rate B of the wash coat layer held in a second pore group having a pore diameter of 10 μm or more but less than 20 μm, and an average filling rate C of the wash coat layer held in a third pore group having a pore diameter of 20 μm or more satisfy relationship below: A < B < C ; and B ≤ 40 % , among pores of the first pore group and the second pore group, a proportion of pores in which a filling rate of a wash coat layer is 75% or more is 35% by number or less, the wash coat layer is formed in a region that occupies 50% or more of a thickness of the partition wall from at least a part of a surface of the partition wall facing at least one of the inlet cell and the outlet cell , and wherein the wash coat layer does not contain the noble metal catalyst. a substrate having a wall flow structure including a porous partition wall partitioning an inlet cell that includes an open end portion on an exhaust gas inflow side and an outlet cell that is adjacent to the inlet cell and has an open end portion on an exhaust gas outflow side; and a wash coat layer formed inside the partition wall , wherein the wash coat layer is held on surfaces of internal pores of the partition wall , among the internal pores of the partition wall , an average filling rate A of the wash coat layer held in a first pore group having a pore diameter of 5 μm or more but less than 10 μm, an average filling rate B of the wash coat layer held in a second pore group having a pore diameter of 10 μm or more but less than 20 μm, and an average filling rate C of the wash coat layer held in a third pore group having a pore diameter of 20 μm or more satisfy relationship below: A < B < C ; and B ≤ 40 % , among pores of the first pore group and the second pore group, a proportion of pores in which a filling rate of a wash coat layer is 75% or more is 35% by number or less, the wash coat layer is formed in a region that occupies 50% or more of a thickness of the partition wall from at least a part of a surface of the partition wall facing at least one of the inlet cell and the outlet cell , and wherein the wash coat layer does not contain the noble metal catalyst.