mhurhangee/patent-ind-claim-en huggingface dataset:
System for establishing trust of a network device, the system comprising: a first network device and a second network device , wherein the first network device includes a trust information unit adapted to generate trust information data, apply modification protection on the generated trust information data, and forward the protected trust information data to the second network device ; and the second network device is adapted to receive the protected trust information data from the first network device , store the received trust information data, and provide the stored trust information to a further network device , wherein the second network device is adapted to receive a request for trust information data from the further network device , the request specifying a predetermined point in time or a predetermined period of time, and wherein the provided trust information data relate to the predetermined point in time or the predetermined period of time. a first network device and a second network device , wherein the first network device includes a trust information unit adapted to generate trust information data, apply modification protection on the generated trust information data, and forward the protected trust information data to the second network device ; and the second network device is adapted to receive the protected trust information data from the first network device , store the received trust information data, and provide the stored trust information to a further network device , wherein the second network device is adapted to receive a request for trust information data from the further network device , the request specifying a predetermined point in time or a predetermined period a predetermined point in time or a predetermined period of time, and wherein the provided trust information data relate to the predetermined point in time or the predetermined period of time.
Pneumatic vehicle tyre for passenger vehicles or vans having at least one wide circumferential groove (1, 1', 1", 1"'), which runs in the circumferential direction, is bounded at the periphery of the tread by two bordering edges (1a, 1'a, 1"a, 1"'a), which run parallel to one another and in a straight line, and has a groove base (13, 13', 13") as well as two groove flanks (9, 10, 9', 10', 9", 10"), wherein elements (11, 12, 11' 12', 11", 12") which project at the groove flanks (9, 10, 9', 10', 9", 10") are formed alternately in the circumferential direction on one or the other of the groove flanks (9, 10, 9', 10', 9", 10"), wherein opposite each projecting element (11, 12, 11', 12', 11", 12") there is on the opposite groove flank (9, 10, 9', 10', 9", 10") a groove flank portion (9a, 10a, 9'a, 10'a, 9"a, 10"a), which runs at least essentially in the radial direction and, starting at the bordering edge (1a, 1'a, 1"a, 1'''a), as far as the groove base , wherein the groove base (13, 13', 13") runs in a meandering or wave-shaped manner along and between the projecting elements (11, 12, 11', 12', 11", 12"), characterized in that the projecting elements (11, 12, 11', 12', 11", 12") are essentially of a wedge-like design and are respectively bounded in the radial direction by a single oblique face (14, 14', 14") which extends in the axial direction as far as the groove base (13, 13', 13")and runs in the circumferential direction at least essentially over the circumferential extent of the elements (11, 12, 11', 12', 11", 12"), wherein the projecting elements (11, 12; 11', 12', 11", 12") are provided in at least two different circumferential lengths (L 1 to L 5 , L 1 ' to L 5 '; L 1 " to L 5 ") and follow one another over the circumference of the circumferential groove (1, 1', 1", 1"') according to a specific sequence, and wherein the groove base (13, 13', 13") is made up of groove base portions (13a, 13'a, 13"a), which run in a straight line in the circumferential direction and in the circumferential direction are alternately offset with respect to one another in the axial direction, connecting portions (13b, 13'b, 13"b) and rounded corner portions (13c, 13'c, 13"c) running between the groove base portions (13a, 13'a, 13"a) and the connecting portions (13b, 13'b, 13"b).
A gas product comprising: a gas container; and a gas composition filled in the gas container, wherein the gas composition comprises only nitrogen monoxide, hydrogen, an inert gas and optionally trace impurities, a concentration of the nitrogen monoxide is 144 volume ppm or less based on a volume of the gas composition, and a concentration of the hydrogen is 1% by volume or more and 4.7% by volume or less. a gas container; and a gas composition filled in the gas container, wherein the gas composition comprises only nitrogen monoxide, hydrogen, an inert gas and optionally trace impurities, a concentration of the nitrogen monoxide is 144 volume ppm or less based on a volume of the gas composition, and a concentration of the hydrogen is 1% by volume or more and 4.7% by volume or less.
A method for additively manufacturing a component , comprising: receiving a data model of a structure comprising the component supported by a conductive support material coupled to at least one inductive element ; additively manufacturing the structure based on the data model; placing the structure in a first magnetic field; and energizing the at least one inductive element to generate a second magnetic field having a direction opposite the first magnetic field and configured to break the support material from the component . receiving a data model of a structure comprising the component supported by a conductive support material coupled to at least one inductive element ; additively manufacturing the structure based on the data model; placing the structure in a first magnetic field; and energizing the at least one inductive element to generate a second magnetic field having a direction opposite the first magnetic field and configured to break the support material from the component .
A method for device-to-device, D2D, communication, the method comprising: a requesting user equipment, UE, broadcasting a Direct Communication Request initiating communication with a remote UE to one or more neighboring UEs, the Direct Communication Request comprising a relay indication indicating whether relaying is allowed for a communication path between the requesting UE and the remote UE and having a value set by the requesting UE to a maximum number of relays allowed for the communication path, wherein the Direct Communication Request is forwarded by a UE if the value of the relay indication in the Direct Communication request as received by the UE is greater than zero and the value of the relay indication is decreased with each forwarding of the Direct Communication Request; the requesting UE receiving , responsive to the Direct Communication Request, a response message from one or more of the neighboring UEs; and the requesting UE determining a communication path for the D2D communication between the requesting UE and the remote UE based on the one or more response messages. a requesting user equipment, UE, broadcasting a Direct Communication Request initiating communication with a remote UE to one or more neighboring UEs, the Direct Communication Request comprising a relay indication indicating whether relaying is allowed for a communication path between the requesting UE and the remote UE and having a value set by the requesting UE to a maximum number of relays allowed for the communication path, wherein the Direct Communication Request is forwarded by a UE if the value of the relay indication in the Direct Communication request as received by the UE is greater than zero and the value of the relay indication is decreased with each forwarding of the Direct Communication Request; the requesting UE receiving , responsive to the Direct Communication Request, a response message from one or more of the neighboring UEs; and the requesting UE determining a communication path for the D2D communication between the requesting UE and the remote UE based on the one or more response messages.
An implantable blood pump assembly , comprising: an implantable blood pump configured to supplement or replace the pumping function of a heart; and an implantable control unit communicatively coupled with the blood pump and storing patient specific settings on which control of the implantable blood pump is based; and a non-implantable external control unit configured to control operation of the implantable blood pump based on the patient specific settings communicated to the external control unit by the implantable control unit . an implantable blood pump configured to supplement or replace the pumping function of a heart; and an implantable control unit communicatively coupled with the blood pump and storing patient specific settings on which control of the implantable blood pump is based; and a non-implantable external control unit configured to control operation of the implantable blood pump based on the patient specific settings communicated to the external control unit by the implantable control unit .
Use of a composition comprising a combination of glucose oxidases for improving shock resistance of a dough, or the crumb structure of a baked product, wherein the composition comprises a Penicillium glucose oxidase which has an amino acid sequence having at least 75% identity to amino acids 19 to 604 of SEQ ID NO. 1 and an Aspergillus glucose oxidase comprising an amino acid sequence having at least 85% identity to the amino acid sequence as set out in SEQ ID NO: 3, wherein shock resistance is determined as set forth in the description and wherein an improved crumb structure includes a finer crumb structure as compared to a reference and is determined as set forth in the description.
Method for determining the elevation angle (α) of a signal received by an ultrasound sensor , the method comprising the steps of: - providing an ultrasound sensor with a frequency-dependent radiation pattern (2.1) (S10); - transmitting at least a first ultrasound wave at a first frequency (S11); - transmitting at least a second ultrasound wave at a second frequency different to the first frequency (S12); - receiving reflections of the first and second ultrasound wave, said reflections being caused by a certain object (S13); - determining the elevation angle (α) of the first and second reflected ultrasound wave based on the amplitudes of the reflections of the first and second ultrasound wave (S14). wherein determining the elevation angle (α) is performed by calculating a ratio between the amplitudes of received reflections of first and second ultrasound wave and mapping the calculated ratio to an elevation angle (α), wherein said mapping is performed based on a predetermined ratio curve or ratio dataset which associates a certain amplitude ratio to an elevation angle, characterized in that determining the elevation angle (α) comprises removing ambiguities of the radiation pattern (2.1) in vertical direction, wherein ambiguities of the radiation pattern in vertical direction are removed by using at least one ultrasound sensor providing an asymmetric radiation pattern in vertical direction. - providing an ultrasound sensor with a frequency-dependent radiation pattern (2.1) (S10); - transmitting at least a first ultrasound wave at a first frequency (S11); - transmitting at least a second ultrasound wave at a second frequency different to the first frequency (S12); - receiving reflections of the first and second ultrasound wave, said reflections being caused by a certain object (S13); - determining the elevation angle (α) of the first and second reflected ultrasound wave based on the amplitudes of the reflections of the first and second ultrasound wave (S14). wherein determining the elevation angle (α) is performed by calculating a ratio between the amplitudes of received reflections of first and second ultrasound wave and mapping the calculated ratio to an elevation angle (α), wherein said mapping is performed based on a predetermined ratio curve or ratio dataset which associates a certain amplitude ratio to an elevation angle, characterized in that determining the elevation angle (α) comprises removing ambiguities of the radiation pattern (2.1) in vertical direction, wherein ambiguities of the radiation pattern in vertical direction are removed by using at least one ultrasound sensor providing an asymmetric radiation pattern in vertical direction.
A method of wireless communication, comprising: identifying , by a user equipment, UE, a pattern, the pattern identifying a battery recovery time period during which a voltage of at least one battery of the UE recovers from a voltage droop, the pattern including a sequence of UE modes having corresponding time periods, and the sequence of UE modes causing different loads on the at least one battery during different time periods; configuring , by the UE , the battery recovery time period based at least in part on the pattern; and communicating , by the UE , with a base station based at least in part on the pattern. identifying , by a user equipment, UE, a pattern, the pattern identifying a battery recovery time period during which a voltage of at least one battery of the UE recovers from a voltage droop, the pattern including a sequence of UE modes having corresponding time periods, and the sequence of UE modes causing different loads on the at least one battery during different time periods; configuring , by the UE , the battery recovery time period based at least in part on the pattern; and communicating , by the UE , with a base station based at least in part on the pattern.
A compound of Formula (I) or (Ia), or a tautomer, a hydrate, a solvate, an N-oxide, or a pharmaceutically acceptable salt thereof, wherein each R 1 is independently H, F, Cl, Br, I, nitro, trifluoromethyl or cyano; each R 2 is independently methyl or ethyl; each R 3 is independently thiazolyl, oxazolyl or imidazolyl; wherein optionally each of thiazolyl, oxazolyl and imidazolyl is independently unsubstituted or substituted with methyl or cyclopropyl; each Z is independently O or S; each R 4 is independently -(CR 5 R 5a ) t -C(=O)-OH; each R 4a is independently H, methyl or isopropyl; each R 5 and R 5a is independently H, F or methyl, or R 5 and R 5a , together with the carbon atom to which they are attached, form cyclopropyl or -C(=O); wherein each n is independently 1, 2 or 3; each m is independently 0, 1 or 2; and t is 1,2, 3 or 4.
A rotorcraft comprising: an airframe ; a main rotor assembly operably connected to the airframe, wherein the main rotor assembly is a dual, counter rotating coaxial main rotor assembly; an auxiliary rotor assembly operably connected to the airframe ; and a drive system disposed at the airframe including: at least two engines , each of the engines including: a compressor section ; and a turbine section disposed rearward from the compressor section; a first engine of the at least two engines having a main rotor input shaft extending from a rotor power turbine of the turbine section and operably connected to the main rotor assembly to transfer rotational energy from the rotor power turbine to the main rotor assembly; and a second engine of the at least two engines having an auxiliary input shaft extending from an auxiliary power turbine of the turbine section and operably connected to the auxiliary rotor assembly to transfer rotational energy from the auxiliary power turbine to the auxiliary rotor assembly which is a propulsor, wherein in use, the first engine solely drives the main rotor assembly and the second engine solely drives the auxiliary rotor assembly . an airframe ; a main rotor assembly operably connected to the airframe, wherein the main rotor assembly is a dual, counter rotating coaxial main rotor assembly; an auxiliary rotor assembly operably connected to the airframe ; and a drive system disposed at the airframe including: at least two engines , each of the engines including: a compressor section ; and a turbine section disposed rearward from the compressor section; a first engine of the at least two engines having a main rotor input shaft extending from a rotor power turbine of the turbine section and operably connected to the main rotor assembly to transfer rotational energy from the rotor power turbine to the main rotor assembly; and a second engine of the at least two engines having an auxiliary input shaft extending from an auxiliary power turbine of the turbine section and operably connected to the auxiliary rotor assembly to transfer rotational energy from the auxiliary power turbine to the auxiliary rotor assembly which is a propulsor, wherein in use, the first engine solely drives the main rotor assembly and the second engine solely drives the auxiliary rotor assembly . a compressor section ; and a turbine section disposed rearward from the compressor section; a first engine of the at least two engines having a main rotor input shaft extending from a rotor power turbine of the turbine section and operably connected to the main rotor assembly to transfer rotational energy from the rotor power turbine to the main rotor assembly; and a second engine of the at least two engines having an auxiliary input shaft extending from an auxiliary power turbine of the turbine section and operably connected to the auxiliary rotor assembly to transfer rotational energy from the auxiliary power turbine to the auxiliary rotor assembly which is a propulsor, wherein in use, the first engine solely drives the main rotor assembly and the second engine solely drives the auxiliary rotor assembly .
A network security management method, wherein the method comprises: receiving (S52, S72), by a first network device on an operator network, a session request sent by a terminal device, wherein the session request is used to request establishment of a first session with a first data network located outside the operator network, the session request comprises first authentication information for the first session, and the first authentication information comprises identifier information of the first data network; obtaining (S53, S73), by the first network device , second authentication information for a second session of the terminal device, wherein the second authentication information comprises identifier information of a second data network which is located outside the operator network and authenticates the second session, wherein the second session has been established earlier; and if the identifier information of the first data network is determined to be the same as the identifier information of the second data network, directly authorizing (S54, S74), by the first network device , the terminal device to establish the first session with the first data network without authenticating the first session by the first data network; wherein determining that the identifier information of the first data network is the same as the identifier information of the second data network comprises: a data network number, DNN, of the first data network is the same as a DNN of the second data network. receiving (S52, S72), by a first network device on an operator network, a session request sent by a terminal device, wherein the session request is used to request establishment of a first session with a first data network located outside the operator network, the session request comprises first authentication information for the first session, and the first authentication information comprises identifier information of the first data network; obtaining (S53, S73), by the first network device , second authentication information for a second session of the terminal device, wherein the second authentication information comprises identifier information of a second data network which is located outside the operator network and authenticates the second session, wherein the second session has been established earlier; and if the identifier information of the first data network is determined to be the same as the identifier information of the second data network, directly authorizing (S54, S74), by the first network device , the terminal device to establish the first session with the first data network without authenticating the first session by the first data network; wherein determining that the identifier information of the first data network is the same as the identifier information of the second data network comprises: a data network number, DNN, of the first data network is the same as a DNN of the second data network.
A polypeptide comprising a fibronectin type III tenth domain ( 10 Fn3), wherein the 10 Fn3 domain comprises BC, DE and FG loops with the amino acid sequences of SEQ ID NOs: 81, 82 and 83, respectively.
Method for controlling applications distributed between a vehicle and a cloud , comprising the following features: - monitoring of communication channels between the vehicle and the cloud is performed and relates to one of the following operating parameters of the communication channels : • a latency , • a reliability , • an availability or • a transmission capacity, and - based on the monitoring , control and adaptation of a portion of the applications operated in the vehicle or of a portion of the applications operated in the cloud is carried out , - functions of the applications are executed either by the portion of the applications operated in the vehicle or the portion of the applications operated in the cloud , - the control takes place by shifting the functions between the vehicle and the cloud based on the operating parameters , - the applications comprise remotely operated driving of the vehicle , and - the shifted functions comprise manoeuvring of the vehicle . - monitoring of communication channels between the vehicle and the cloud is performed and relates to one of the following operating parameters of the communication channels : • a latency , • a reliability , • an availability or • a transmission capacity, and • a latency , • a reliability , • an availability or • a transmission capacity, and - based on the monitoring , control and adaptation of a portion of the applications operated in the vehicle or of a portion of the applications operated in the cloud is carried out , - functions of the applications are executed either by the portion of the applications operated in the vehicle or the portion of the applications operated in the cloud , - the control takes place by shifting the functions between the vehicle and the cloud based on the operating parameters , - the applications comprise remotely operated driving of the vehicle , and - the shifted functions comprise manoeuvring of the vehicle .