mhurhangee/ep-ind-claims huggingface dataset:
A structure of an underrun protection bound to a plurality of brackets disposed transversally at the front or rear portion of a frame of a vehicle, comprising a hollow having a closed section defined by a distal face of a longitudinal direction of the vehicle, a proximal face of the longitudinal direction, an upper face, and a lower face, characterized in that: a plurality of lightening holes (61, 62) are formed in line along an extending direction of the underrun protection on at least one of the distal face and the proximal face; and the plurality of lightening holes (61, 62) have lengths in vertical direction set larger as departing farther from the adjacent binder parts each at which the underrun protection is bound to one of the plurality of brackets. a plurality of lightening holes (61, 62) are formed in line along an extending direction of the underrun protection on at least one of the distal face and the proximal face; and the plurality of lightening holes (61, 62) have lengths in vertical direction set larger as departing farther from the adjacent binder parts each at which the underrun protection is bound to one of the plurality of brackets.
A tool for machining planar workpieces, in particular metal sheets, comprising an upper tool and comprising a lower tool, which are movable towards each another and in the opposite direction in a stroke direction for machining the workpiece arranged therebetween, and the upper tool comprises a clamping shaft and a main body, which lie in a common positioning axis and comprising a tool body arranged opposite to the clamping shaft on the main body, the tool body comprising a bending edge and the lower tool comprising a main body which receives a rotational body which is rotatable around an axis of rotation running in a direction of the bending edge of the tool body, characterized in that the main body of the upper tool forms a projection surface perpendicular to the positioning axis and seen in the stroke direction and the bending edge of the tool body is adjacent tangentially to the projection surface or is provided outside the projection surface.
A method in a first radio network node serving a first user equipment, UE, in a first mobile radio network for enabling a Device-to-Device, D2D, communication over a radio link with a second UE served by a second radio network node in a second radio network, the method comprising: establishing a connection with the second radio network node; receiving a request from the first UE for enabling the communication with the second UE; sending a first message comprising information related to the first UE to the second radio network node to be used by the second radio network node for configuration of the second UE in response to the received request and via the established connection; receiving a second message comprising information related to the second UE from the second radio network node to be used by the first radio network node for configuration of the first UE in response to the first message and via the established connection; sending to the first UE a third message comprising the received information related to the second UE and a command to transmit a beacon for enabling the communication with the second UE, wherein the first message and second message, each further comprises information on one or more Physical Resource Blocks, PRBs, that are used by the first UE and the second UE, respectively. establishing a connection with the second radio network node; receiving a request from the first UE for enabling the communication with the second UE; sending a first message comprising information related to the first UE to the second radio network node to be used by the second radio network node for configuration of the second UE in response to the received request and via the established connection; receiving a second message comprising information related to the second UE from the second radio network node to be used by the first radio network node for configuration of the first UE in response to the first message and via the established connection; sending to the first UE a third message comprising the received information related to the second UE and a command to transmit a beacon for enabling the communication with the second UE, wherein the first message and second message, each further comprises information on one or more Physical Resource Blocks, PRBs, that are used by the first UE and the second UE, respectively.
Key exchange system (200, 300), comprising: - at least one key forwarding distribution device (212, 312, 412), - wherein the key forwarding distribution device (212, 312, 412) comprises at least one receiving module (214, 314, 414) configured to receive a quantum key via a first optical communication channel (228, 328, 428), - wherein the key forwarding distribution device (212, 312, 412) comprises at least one generating module (218, 318, 418) configured to generate the received quantum key, and - wherein the key forwarding distribution device (212, 312, 412) comprises at least one transmitting module (216, 316, 416) configured to transmit the generated quantum key via at least one further optical communication channel (230, 330, 430), characterized in that - the key forwarding distribution device (212, 312, 412) is arranged in a power distribution network device (220, 320) of a power distribution network (222, 322), - wherein the power distribution network device (220, 320) is a transformer station comprising a housing for enclosing a transformer unit, wherein the key further distribution device (212, 312, 412) is arranged within the housing of the transformer station, or - wherein the power distribution network device (220, 320) is an overhead power line tower having a tower tip, and the tower tip comprises the power distribution network device (212, 312, 412). - at least one key forwarding distribution device (212, 312, 412), - wherein the key forwarding distribution device (212, 312, 412) comprises at least one receiving module (214, 314, 414) configured to receive a quantum key via a first optical communication channel (228, 328, 428), - wherein the key forwarding distribution device (212, 312, 412) comprises at least one generating module (218, 318, 418) configured to generate the received quantum key, and - wherein the key forwarding distribution device (212, 312, 412) comprises at least one transmitting module (216, 316, 416) configured to transmit the generated quantum key via at least one further optical communication channel (230, 330, 430), characterized in that - the key forwarding distribution device (212, 312, 412) is arranged in a power distribution network device (220, 320) of a power distribution network (222, 322), - wherein the power distribution network device (220, 320) is a transformer station comprising a housing for enclosing a transformer unit, wherein the key further distribution device (212, 312, 412) is arranged within the housing of the transformer station, or - wherein the power distribution network device (220, 320) is an overhead power line tower having a tower tip, and the tower tip comprises the power distribution network device (212, 312, 412). - wherein the power distribution network device (220, 320) is an overhead power line tower having a tower tip, and the tower tip comprises the power distribution network device (212, 312, 412).
Method for operating an internal combustion engine, in particular of a motor vehicle, comprising a plurality of cylinders, a fresh air system and an exhaust system, in which systems pressure pulsations occur during operation, and comprising at least one peripheral actuator (9, 11, 13, 15, 17), the method comprising: - detecting an operating state of the internal combustion engine - determining a global actuator position for the peripheral actuator (9, 11, 13, 15, 17) on the basis of the detected operating state of the internal combustion engine - setting the global actuator position - determining a relative actuator variation for the peripheral actuator (9, 11, 13, 15, 17) - changing the global actuator position by the relative actuator variation, wherein the relative actuator variation is synchronized with the combustion cycle such that a change in the pressure pulsation brought about by means of the relative actuator variation sets a desired gas quantity and/or composition in the cylinder, in the fresh air system and/or in the exhaust system in a way that minimizes consumption and/or emissions. - detecting an operating state of the internal combustion engine - determining a global actuator position for the peripheral actuator (9, 11, 13, 15, 17) on the basis of the detected operating state of the internal combustion engine - setting the global actuator position - determining a relative actuator variation for the peripheral actuator (9, 11, 13, 15, 17) - changing the global actuator position by the relative actuator variation,
A system for releasing an implant in an aneurysm, the system comprising: a braided implant; a delivery tube comprising a lumen therethrough, a distal end, an outer surface, and a channel; a releasing component comprising: a band comprising an outer surface attached to a first portion of the braided implant and a lumen encompassing the delivery tube approximate the distal end of the delivery tube, and a spring member attached to the band, the spring member movable from a compression configuration to an extended configuration, the compression configuration pressing the outer surface of the delivery tube, and the extended configuration extending away from the outer surface of the delivery tube; and a pull wire positioned within the channel of the delivery tube, the pull wire movable from an engaging configuration to a releasing configuration, the engaging configuration engaging the releasing component, and the releasing configuration allowing the spring member to expand to its extended configuration; the system being characterized in that said channel is disposed on the outer surface of the delivery tube. a braided implant; a delivery tube comprising a lumen therethrough, a distal end, an outer surface, and a channel; a releasing component comprising: a band comprising an outer surface attached to a first portion of the braided implant and a lumen encompassing the delivery tube approximate the distal end of the delivery tube, and a spring member attached to the band, the spring member movable from a compression configuration to an extended configuration, the compression configuration pressing the outer surface of the delivery tube, and the extended configuration extending away from the outer surface of the delivery tube; and a band comprising an outer surface attached to a first portion of the braided implant and a lumen encompassing the delivery tube approximate the distal end of the delivery tube, and a spring member attached to the band, the spring member movable from a compression configuration to an extended configuration, the compression configuration pressing the outer surface of the delivery tube, and the extended configuration extending away from the outer surface of the delivery tube; and a pull wire positioned within the channel of the delivery tube, the pull wire movable from an engaging configuration to a releasing configuration, the engaging configuration engaging the releasing component, and the releasing configuration allowing the spring member to expand to its extended configuration; the system being characterized in that said channel is disposed on the outer surface of the delivery tube.
A method of manufacturing a building, the building comprising a plurality of walls and being immovably positioned at a predefined location, the method comprises the following method steps: Spreading a flexible enveloping form, in particular made of film-like material, at the predefined location, Filling the flexible enveloping form with a foaming material, Curing of the foaming material, thereby forming stable walls of the building, characterised in that in that the flexible enveloping form is arranged at least partially around at least one solid structural element, and in that the solid structural element is at least partially enclosed by the foaming material. Spreading a flexible enveloping form, in particular made of film-like material, at the predefined location, Filling the flexible enveloping form with a foaming material, Curing of the foaming material, thereby forming stable walls of the building, characterised in that in that the flexible enveloping form is arranged at least partially around at least one solid structural element, and in that the solid structural element is at least partially enclosed by the foaming material.
Method for the fabrication of an electrode film for an all-solid-state battery, comprising the steps of: a) procuring a substrate, preferably conductive, b) depositing an electrode film on said substrate by electrophoresis, from a suspension containing particles of electrode material, c) drying the film obtained in the previous step, d) thermal consolidation of the electrode film obtained in the previous step by sintering, the sintering being done at a temperature T R that does not exceed 0.7 times the melting point expressed in °C, more preferably does not exceed 0.5 times the melting point expressed in °C, and even more preferably does not exceed 0.3 times the melting point expressed in °C of the most fusible electrode material, characterized in that the mean size D 50 of the particles of electrode material is less than 100 nm and more preferably less than or equal to 30 nm. a) procuring a substrate, preferably conductive, b) depositing an electrode film on said substrate by electrophoresis, from a suspension containing particles of electrode material, c) drying the film obtained in the previous step, d) thermal consolidation of the electrode film obtained in the previous step by sintering, the sintering being done at a temperature T R that does not exceed 0.7 times the melting point expressed in °C, more preferably does not exceed 0.5 times the melting point expressed in °C, and even more preferably does not exceed 0.3 times the melting point expressed in °C of the most fusible electrode material,
A system with at least two motor vehicle latches (1, 2), whereby each motor vehicle latch (1, 2) demonstrates a catch and a pawl for a latching of the catch which is pivotably mounted on a latch plate or a latch case, whereby each motor vehicle latch (1, 2) demonstrates the same latch plate or the same latch case and each catch and each pawl are mounted at the same site on the latch plate or the latch case, characterized in that at least two motor vehicle latches (1, 2) demonstrate differently arranged screwing points (10, 11) in the latch plate or the latch case for the screwing of one of each of the motor vehicle latches (1, 2) to a motor vehicle.
Method for secure communications in a telecommunications network, in which a transaction between an entity A and an entity B of said network comprises the following steps: a) the entity A sends to an Authorization Server S an authorization request in which the entity A identifies and authenticates itself as the holder of an identifier ID A; b) the entity A declares to the Authorization Server S its intention to communicate with a certain entity B; the Authorization Server S determines a secret key K SB which it shares with this entity B; and c) the Authorization Server S generates a session key K AB, N and sends it to the entity A; said method being characterized in that said session key K AB,N is a one-way function of said secret key K SB, and is also a function of an integer N, referred to as the transaction number, allocated to said transaction, and in that it further comprises the following steps: d) the Authorization Server S also generates a transaction identifier IDTR N, which is a function dependent at least on said transaction number N in a non-invertible manner; e) the Authorization Server S supplies the entity B with elements comprising at least said transaction identifier IDTR N; and f) the entity B verifies at least that the value of the transaction identifier IDTR N received during said step e) figures within a set of values precalculated by the entity B by means of an algorithm for modifying the transaction number and an initial transaction number which are shared with the Authorization Server S, and corresponding to at least one scheduled value of the transaction number; if such is the case, the entity B deduces therefrom firstly the current value of the transaction number N, and subsequently the value of the session key K AB, N. a) the entity A sends to an Authorization Server S an authorization request in which the entity A identifies and authenticates itself as the holder of an identifier ID A; b) the entity A declares to the Authorization Server S its intention to communicate with a certain entity B; the Authorization Server S determines a secret key K SB which it shares with this entity B; and c) the Authorization Server S generates a session key K AB, N and sends it to the entity A; d) the Authorization Server S also generates a transaction identifier IDTR N, which is a function dependent at least on said transaction number N in a non-invertible manner; e) the Authorization Server S supplies the entity B with elements comprising at least said transaction identifier IDTR N; and f) the entity B verifies at least that the value of the transaction identifier IDTR N received during said step e) figures within a set of values precalculated by the entity B by means of an algorithm for modifying the transaction number and an initial transaction number which are shared with the Authorization Server S, and corresponding to at least one scheduled value of the transaction number; if such is the case, the entity B deduces therefrom firstly the current value of the transaction number N, and subsequently the value of the session key K AB, N.
A method for operating a terminal supporting multi-radio access technologies, multi-RAT, in a wireless communication system, the method comprising: receiving, from a base station through a first RAT, a signal indicating a first sequence number of packet data convergence protocol, PDCP, data to be last received from an access node through a second RAT, wherein the first RAT is a radio access technology different from the second RAT; transmitting, to the base station through the first RAT, a signal indicating a second sequence number of the PDCP data last received from the access node through the second RAT, wherein a successful transmission of the PDCP data from the access node through the second RAT is ensured when the second sequence number of the PDCP data last received through the second RAT is equal to the first sequence number of the PDCP data to be last received through the second RAT; and receiving, from the base station through the first RAT, the PDCP data to be received with a sequence number higher than the second sequence number in response to transmitting the signal indicating the second sequence number which is less than the first sequence number. receiving, from a base station through a first RAT, a signal indicating a first sequence number of packet data convergence protocol, PDCP, data to be last received from an access node through a second RAT, wherein the first RAT is a radio access technology different from the second RAT; transmitting, to the base station through the first RAT, a signal indicating a second sequence number of the PDCP data last received from the access node through the second RAT, wherein a successful transmission of the PDCP data from the access node through the second RAT is ensured when the second sequence number of the PDCP data last received through the second RAT is equal to the first sequence number of the PDCP data to be last received through the second RAT; and receiving, from the base station through the first RAT, the PDCP data to be received with a sequence number higher than the second sequence number in response to transmitting the signal indicating the second sequence number which is less than the first sequence number.
Circuitry accepting a first input value and a second input value and outputting a first sum involving said first input value and said second input value, and a second sum involving said first input value and said second input value, said circuitry comprising: a first adder circuit; a second adder circuit; a compressor circuit; and a preprocessing stage (304, 305); wherein: said first input value and said second input value are input to said first adder circuit to provide said first sum; said first input value and said second input value are input to said preprocessing stage (304, 305) to provide inputs to said compressor circuit, said compressor circuit providing first and second compressed output signals (311, 321); said first and second compressed output signals (311, 321) are input to said second adder circuit to provide said second sum. a first adder circuit; a second adder circuit; a compressor circuit; and a preprocessing stage (304, 305); wherein: said first input value and said second input value are input to said first adder circuit to provide said first sum; said first input value and said second input value are input to said preprocessing stage (304, 305) to provide inputs to said compressor circuit, said compressor circuit providing first and second compressed output signals (311, 321); said first and second compressed output signals (311, 321) are input to said second adder circuit to provide said second sum. said first input value and said second input value are input to said first adder circuit to provide said first sum; said first input value and said second input value are input to said preprocessing stage (304, 305) to provide inputs to said compressor circuit, said compressor circuit providing first and second compressed output signals (311, 321); said first and second compressed output signals (311, 321) are input to said second adder circuit to provide said second sum.
A method of making a 5-(2,3-dichloro-4-(1,1,1,3,3,3-hexafluoro-2-hydroxypropan-2-yl)phenyl)- N -(2-hydroxy-2-methylpropyl)-4-(R 1 -1-carbonyl)thiazole-2-carboxamide comprising the step of reacting R 1 -H with 5-(2,3-dichloro-4-(1,1,1,3,3,3-hexafluoro-2-hydroxypropan-2-yl)phenyl)-2-((2-hydroxy-2-methylpropyl)carbamoyl)thiazole-4-carboxylic acid in the presence of N,N -diisopropylethylamine and O -(7-azabenzotriazol-1-yl)- N,N,N',N' -tetramethyluronium hexafluorophosphate, as shown in the reaction below: wherein R 1 is selected from the group consisting of: