mhurhangee/ep-ind-claims huggingface dataset:
A resource request method, comprising: receiving a first frequency information list and a second frequency information list from an access network device, wherein the first frequency information list comprises at least one piece of first frequency information, and the second frequency information list comprises at least one piece of second frequency information; sending resource request information to the access network device, wherein the resource request information carries destination vehicle-to-everything, V2X, service indication information, the destination V2X service indication information corresponds to a first radio access technology, RAT, and/or corresponds to a second RAT, the first RAT corresponds to the first frequency information list, and the second RAT corresponds to the second frequency information list; receiving resource indication information from the access network device, wherein the resource indication information is a time-frequency resource used to indicate a sidelink, SL, corresponding to a RAT that comprises the first RAT and/or the second RAT, and wherein time-frequency resource is determined by the access network device based on the destination V2X service indication information; and sending a V2X service to a second terminal device by using the time-frequency resource. receiving a first frequency information list and a second frequency information list from an access network device, wherein the first frequency information list comprises at least one piece of first frequency information, and the second frequency information list comprises at least one piece of second frequency information; sending resource request information to the access network device, wherein the resource request information carries destination vehicle-to-everything, V2X, service indication information, the destination V2X service indication information corresponds to a first radio access technology, RAT, and/or corresponds to a second RAT, the first RAT corresponds to the first frequency information list, and the second RAT corresponds to the second frequency information list; receiving resource indication information from the access network device, wherein the resource indication information is a time-frequency resource used to indicate a sidelink, SL, corresponding to a RAT that comprises the first RAT and/or the second RAT, and wherein time-frequency resource is determined by the access network device based on the destination V2X service indication information; and sending a V2X service to a second terminal device by using the time-frequency resource.
A service obtaining method, comprising: determining, by user equipment, a first Internet protocol IP address by using a preset algorithm based on a service name of a to-be-accessed service, wherein the preset algorithm is used by a management server to determine the first IP address and the first IP address is allocated by the management server to a first serving-end device; sending, by the user equipment, a communication data packet by using the first IP address as a destination address; and receiving, by the user equipment, the service provided by the serving-end device, wherein the determining, by user equipment, a first IP address by using a preset algorithm based on a service name of a to-be-accessed service comprises: determining, by the user equipment, a service identifier by applying a hash algorithm to the service name; and determining, by the user equipment, the first IP address based on the service identifier by adding a prefix in front of the first service identifier. determining, by user equipment, a first Internet protocol IP address by using a preset algorithm based on a service name of a to-be-accessed service, wherein the preset algorithm is used by a management server to determine the first IP address and the first IP address is allocated by the management server to a first serving-end device; sending, by the user equipment, a communication data packet by using the first IP address as a destination address; and receiving, by the user equipment, the service provided by the serving-end device, wherein the determining, by user equipment, a first IP address by using a preset algorithm based on a service name of a to-be-accessed service comprises: determining, by the user equipment, a service identifier by applying a hash algorithm to the service name; and determining, by the user equipment, the first IP address based on the service identifier by adding a prefix in front of the first service identifier. determining, by the user equipment, a service identifier by applying a hash algorithm to the service name; and determining, by the user equipment, the first IP address based on the service identifier by adding a prefix in front of the first service identifier.
An article, wherein the article is a rotating component of a turbine engine, comprising: a silicon-containing region comprising surface features on a surface thereof, the surface features comprising depressions, protuberances, or combinations thereof; wherein the silicon-containing region is a bondcoat overlying a substrate of the article, and the bondcoat is formed of a material containing elemental silicon; one or more silicon alloys; silicon carbide; silicon nitride; transition metal silicides; silica; rare earth silicates; rare earth aluminosilicates; alkaline earth aluminosilicates; and mixtures thereof; at least one outer layer overlying the surface of the silicon-containing region; and a constituent layer on the surface of the silicon-containing region and between and contacting the silicon-containing region and the at least one outer layer, the constituent layer being formed by constituents of the silicon-containing region and being susceptible to creep deformation within an operating environment of the article, the surface features physically interlocking the at least one outer layer with the silicon-containing region through the constituent layer wherein the surface features extend from or into the surface of the silicon-containing region by 40 to 160μm. a silicon-containing region comprising surface features on a surface thereof, the surface features comprising depressions, protuberances, or combinations thereof; wherein the silicon-containing region is a bondcoat overlying a substrate of the article, and the bondcoat is formed of a material containing elemental silicon; one or more silicon alloys; silicon carbide; silicon nitride; transition metal silicides; silica; rare earth silicates; rare earth aluminosilicates; alkaline earth aluminosilicates; and mixtures thereof; at least one outer layer overlying the surface of the silicon-containing region; and a constituent layer on the surface of the silicon-containing region and between and contacting the silicon-containing region and the at least one outer layer, the constituent layer being formed by constituents of the silicon-containing region and being susceptible to creep deformation within an operating environment of the article, the surface features physically interlocking the at least one outer layer with the silicon-containing region through the constituent layer wherein the surface features extend from or into the surface of the silicon-containing region by 40 to 160μm.
A control system for a motor vehicle suspension having a plurality of adjustable height suspension units (19, 21, 23, 25), the control system comprising: suspension control means for controlling the suspension units(19, 21, 23, 25); and a receiver for receiving a measured height signal for each suspension unit (19, 21, 23, 25); characterised in that the control system further comprises: a suspension modelling means for modelling the height of each suspension unit (19, 21, 23, 25); wherein the control system is configured to detect an unrequested suspension height change when the difference between the modelled height (h E) and the measured height (h M) of one or more suspension units (19, 21, 23, 25) exceeds a first threshold. suspension control means for controlling the suspension units(19, 21, 23, 25); and a receiver for receiving a measured height signal for each suspension unit (19, 21, 23, 25); a suspension modelling means for modelling the height of each suspension unit (19, 21, 23, 25); wherein the control system is configured to detect an unrequested suspension height change when the difference between the modelled height (h E) and the measured height (h M) of one or more suspension units (19, 21, 23, 25) exceeds a first threshold.
A method for controlling display of a user number in a conference service notification message, applied in the Internet Protocol multimedia sub-system, comprising: before a conference service server sends a conference service notification message to a user subscribing to conference events in a conference, determining, by said conference service server, whether to provide in said conference service notification message number information of other user equipments participating in or withdrawing from the conference so as to display to said user, according to an authority value of said user and user expectation values of said other user equipments participating in or withdrawing from the conference, wherein, said user expectation values indicate whether users are willing to display their numbers thereof to other users in the conference, and said authority value indicates whether the user has an authority to receive the number information of other users. before a conference service server sends a conference service notification message to a user subscribing to conference events in a conference, determining, by said conference service server, whether to provide in said conference service notification message number information of other user equipments participating in or withdrawing from the conference so as to display to said user, according to an authority value of said user and user expectation values of said other user equipments participating in or withdrawing from the conference, wherein, said user expectation values indicate whether users are willing to display their numbers thereof to other users in the conference, and said authority value indicates whether the user has an authority to receive the number information of other users.
A test meter for receiving a test strip comprising: (a) a housing; (b) electronic circuitry disposed within the housing, and (c) a strip port connector connected to the electronic circuitry and extending to an opening in the housing, said strip port connector connecting the electronic circuitry with a received test strip, wherein the strip port connector contains top and bottom contacts forming a pair of contacts (20,20';30,30';40,40';50,50'), said top and bottom contacts having a proximal end (22,22';32,32';42,42') and a distal end (23,23';33,33';43,43') and a central contact portion (24,24';34,34';44,44';54,54'), the top and bottom contacts of the pair are transversely aligned with one another, the distal ends of the top and bottom contacts being separable from one another by insertion of a test strip therebetween, and wherein one of the top or bottom contacts is connected to the electronic circuitry to read encoding marks disposed on one surface of a test strip, and the other of the top or bottom contacts is connected to the electronic circuitry to obtain information about measurements made by the test strip on a sample introduced into the test strip, characterised in that the top and bottom contacts of the pair are biased such that the respective central contact portions are in electrical contact with one another when no test strip is received in the test meter, and the electronic circuitry is configured to test for electrical contact between the pair of top and bottom contacts at one or more times when a test strip is not inserted between top and bottom contacts. (a) a housing; (b) electronic circuitry disposed within the housing, and (c) a strip port connector connected to the electronic circuitry and extending to an opening in the housing, said strip port connector connecting the electronic circuitry with a received test strip, wherein
Cultural object protection device having at least one ground collar, which is designed to surround, on the ground in an encircling manner, the cultural object to be protected and to keep away ground moisture, and having a sleeve which is composed of diaphragm material and which is designed to surround, from above and from all sides, the cultural object to be protected and which closes off with the ground collar such that no precipitation can penetrate, wherein the sleeve composed of diaphragm material is transparent or translucent at least in a part surface, characterized in that the sleeve composed of diaphragm material is reversibly fastenable to the ground collar, and the device has at least one first vent opening for the supply air and at least one second vent opening for the waste air.
An engine control device mounted in an engine that includes a cylinder block, a cylinder head and a piston, and a tumble flow change unit which changes a tumble flow generated inside a cylinder, and is configured to be capable of securing a cooling of the cylinder block and suppressing an occurrence of a cooling loss in the cylinder head, wherein a spark plug is provided to the cylinder head to face the inside of the cylinder, the engine control device comprising: a control unit that feedback-controls the tumble flow change unit based on a discharge voltage when a discharge of the spark plug is blown off by the tumble flow generated inside the cylinder for the first time so that a flow velocity of air flowing along a surface on a cylinder head side becomes greater than a flow velocity of air flowing along a surface on a piston side. a control unit that feedback-controls the tumble flow change unit based on a discharge voltage when a discharge of the spark plug is blown off by the tumble flow generated inside the cylinder for the first time so that a flow velocity of air flowing along a surface on a cylinder head side becomes greater than a flow velocity of air flowing along a surface on a piston side.
A shampoo composition comprising: a) from about 5 % to about 50 % of one or more detersive surfactants, by weight of said shampoo composition; b) a dispersed solid crystalline gel network phase comprising: i) from 1 % to 8 % of one or more fatty amphiphiles, by weight of said shampoo composition, wherein said fatty amphiphile, or a mixture of two or more of said fatty amphiphiles, has a melting point of at least 27 °C; ii) at least about 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; and iii) water; and c) at least about 20 % of an aqueous carrier, by weight of said shampoo composition; wherein said dispersed solid crystalline gel network phase is pre-formed; and wherein the fatty amphiphiles are selected from the group consisting of fatty amides, fatty alkanolamides, fatty alkoxylated amides, and mixtures thereof. a) from about 5 % to about 50 % of one or more detersive surfactants, by weight of said shampoo composition; b) a dispersed solid crystalline gel network phase comprising: i) from 1 % to 8 % of one or more fatty amphiphiles, by weight of said shampoo composition, wherein said fatty amphiphile, or a mixture of two or more of said fatty amphiphiles, has a melting point of at least 27 °C; ii) at least about 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; and iii) water; and i) from 1 % to 8 % of one or more fatty amphiphiles, by weight of said shampoo composition, wherein said fatty amphiphile, or a mixture of two or more of said fatty amphiphiles, has a melting point of at least 27 °C; ii) at least about 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; and iii) water; and c) at least about 20 % of an aqueous carrier, by weight of said shampoo composition; wherein said dispersed solid crystalline gel network phase is pre-formed; and wherein the fatty amphiphiles are selected from the group consisting of fatty amides, fatty alkanolamides, fatty alkoxylated amides, and mixtures thereof.
A negative electrode active material comprising: silicon-based oxide particles; and a metal distributed on a surface, inside, or on the surface of and the inside the silicon-based oxide particles, wherein compressive fracture strength measured at a pressure of 100 mN is 170 MPa to 380 MPa, the silicon-based oxide particles contain Si crystal grains having a crystal grain size of 3 nm to 20 nm, the metal is at least one selected from the group consisting of Li, and Mg, and the metal is included in the negative electrode active material in an amount of 3 wt% to 15 wt%, wherein the Si crystal grain size is measured as described in the description of the invention, and wherein the compressive fracture strength is measured as described in the description of the invention. silicon-based oxide particles; and a metal distributed on a surface, inside, or on the surface of and the inside the silicon-based oxide particles, wherein compressive fracture strength measured at a pressure of 100 mN is 170 MPa to 380 MPa, the silicon-based oxide particles contain Si crystal grains having a crystal grain size of 3 nm to 20 nm, the metal is at least one selected from the group consisting of Li, and Mg, and the metal is included in the negative electrode active material in an amount of 3 wt% to 15 wt%, wherein the Si crystal grain size is measured as described in the description of the invention, and wherein the compressive fracture strength is measured as described in the description of the invention.
Sheet material processing unit (20 to 28), comprising an input end (20i to 28i) where sheets to be processed enter the sheet material processing unit (20 to 28), and an output end (20o to 28o) where at least parts of the sheets leave the sheet material processing unit (20 to 28), a transport system for transporting the sheets or parts thereof from the input end (20i to 28i) to the output end (20o to 28o), and a gripper unit being releasably coupled to the transport system and being configured for holding at least a part of one of the sheets, wherein the input end (20i to 28i) and/or the output end (20o to 28o) are/is equipped with a handover mechanism (47d, 47r) being configured for decoupling the gripper unit from the transport system and providing the gripper unit to a neighboring sheet material processing unit (20 to 28) and/or receiving a gripper unit from a neighboring sheet material processing unit (20 to 28) and coupling the received gripper unit to the corresponding transport system characterized in that the transport system comprises a recirculation section configured for transporting gripper units without sheets in a direction from the output end (20o to 28o) to the input end (20i to 28i), wherein the recirculation section is associated with a handover mechanism arranged on the input end (20i to 28i) and being configured for decoupling the gripper unit from the transport system and providing the gripper unit to a neighboring sheet material processing unit (20 to 28). an input end (20i to 28i) where sheets to be processed enter the sheet material processing unit (20 to 28), and an output end (20o to 28o) where at least parts of the sheets leave the sheet material processing unit (20 to 28), a transport system for transporting the sheets or parts thereof from the input end (20i to 28i) to the output end (20o to 28o), and a gripper unit being releasably coupled to the transport system and being configured for holding at least a part of one of the sheets, wherein the input end (20i to 28i) and/or the output end (20o to 28o) are/is equipped with a handover mechanism (47d, 47r) being configured for decoupling the gripper unit from the transport system and providing the gripper unit to a neighboring sheet material processing unit (20 to 28) and/or receiving a gripper unit from a neighboring sheet material processing unit (20 to 28) and coupling the received gripper unit to the corresponding transport system characterized in that the transport system comprises a recirculation section configured for transporting gripper units without sheets in a direction from the output end (20o to 28o) to the input end (20i to 28i), wherein the recirculation section is associated with a handover mechanism arranged on the input end (20i to 28i) and being configured for decoupling the gripper unit from the transport system and providing the gripper unit to a neighboring sheet material processing unit (20 to 28).
A method for operating an aircraft having two or more engines (10A, 10B), the method comprising: operating the two or more engines (10A, 10B) of the aircraft in an asymmetric operating regime, wherein a first of the engines (10A, 10B) is in an active mode to provide motive power to the aircraft and a second of the engines (10A, 10B) is in a standby mode to provide substantially no motive power to the aircraft, characterised in that the method further comprises: receiving a request to exit the asymmetric operating regime, the request having at least one parameter associated therewith, the at least one parameter distinguishing between a system-commanded request to exit the asymmetric operating regime and a pilot-commanded request to exit the asymmetric operating regime; selecting one of a plurality of available exit protocols as a function of the at least one parameter; and applying the exit protocol by commanding the engines (10A, 10B) accordingly. operating the two or more engines (10A, 10B) of the aircraft in an asymmetric operating regime, wherein a first of the engines (10A, 10B) is in an active mode to provide motive power to the aircraft and a second of the engines (10A, 10B) is in a standby mode to provide substantially no motive power to the aircraft, characterised in that the method further comprises: receiving a request to exit the asymmetric operating regime, the request having at least one parameter associated therewith, the at least one parameter distinguishing between a system-commanded request to exit the asymmetric operating regime and a pilot-commanded request to exit the asymmetric operating regime; selecting one of a plurality of available exit protocols as a function of the at least one parameter; and applying the exit protocol by commanding the engines (10A, 10B) accordingly. receiving a request to exit the asymmetric operating regime, the request having at least one parameter associated therewith, the at least one parameter distinguishing between a system-commanded request to exit the asymmetric operating regime and a pilot-commanded request to exit the asymmetric operating regime; selecting one of a plurality of available exit protocols as a function of the at least one parameter; and applying the exit protocol by commanding the engines (10A, 10B) accordingly.
Balancer, in particular a spring balancer or a zero-gravity balancer, for a movable component with a component weight, having - a spindle mechanism with a translation element and a rotation element, on which the component can be suspended, and - at least one compression spring which is connected, at one of its ends, to the translation element of the spindle mechanism, wherein the compression spring is able to be compressed by means of the translation element in the event of a rotation of the rotation element brought about by the component weight, characterized in that the compression spring is a cylindrical coil spring which can deflect along its longitudinal axis in the event of compressive load. - a spindle mechanism with a translation element and a rotation element, on which the component can be suspended, and - at least one compression spring which is connected, at one of its ends, to the translation element of the spindle mechanism, wherein