mhurhangee/ep-ind-claims huggingface dataset:
A wiper blade for the windshield of a vehicle, notably a motor vehicle, comprising - a blade rubber having elastic tongues, - a body consisting of an upper body containing a one-piece rigid strip and of a lower body to which said blade rubber is attached, - a spoiler extending from said body and having an aerodynamic profile between a leading edge and a trailing edge, the blade having a boundary between the body and the spoiler that is defined by a horizontal surface passing through the leading edge of said profile, characterized in that said spoiler extends horizontally downstream beyond a part, virtual or otherwise, defined as forming the mirror image, about a vertical plane passing through a lower end of the blade rubber, of that part of the body that is situated upstream of this same vertical plane and in that the rigid strip does not extend upstream beyond the part of the body that holds the blade rubber and the elastic tongues. - a blade rubber having elastic tongues, - a body consisting of an upper body containing a one-piece rigid strip and of a lower body to which said blade rubber is attached, - a spoiler extending from said body and having an aerodynamic profile between a leading edge and a trailing edge, the blade having a boundary between the body and the spoiler that is defined by a horizontal surface passing through the leading edge of said profile,
A propeller for a boat having a driving shaft, the propeller comprising: a propeller shaft having a shaft hole surrounded by an inner surface of the propeller shaft; a shaft sleeve mounted in the shaft hole having a metal core with a through hole for insertion of the driving shaft, and a rubber shock-absorbing member covering an outer surface of the metal core and having an outer surface contacted with the inner surface of the propeller shaft; and a lock unit mounted on the driving shaft for fixing the driving shaft in the through hole of the shaft sleeve, so that the propeller is rotatable by the driving shaft, characterized in that the metal core has four ribs which have concave sides, and in that the ribs are equiangularly spaced around a center portion of the metal core and extend along a longitudinal axis of the metal core. a propeller shaft having a shaft hole surrounded by an inner surface of the propeller shaft; a shaft sleeve mounted in the shaft hole having a metal core with a through hole for insertion of the driving shaft, and a rubber shock-absorbing member covering an outer surface of the metal core and having an outer surface contacted with the inner surface of the propeller shaft; and a lock unit mounted on the driving shaft for fixing the driving shaft in the through hole of the shaft sleeve, so that the propeller is rotatable by the driving shaft, characterized in that the metal core has four ribs which have concave sides, and in that the ribs are equiangularly spaced around a center portion of the metal core and extend along a longitudinal axis of the metal core.
A method of establishing a secure communication channel between a first communication device and a second communication device, the secure communication channel being defined by one or more algorithm options, the one or more algorithm options being associated with one of one or more option categories, the method being performed at the first communication device comprising: receiving, via an input module, a signal representing one or more selections, the respective one or more selections being associated with one of the one or more option categories; for the respective option categories, generating a sorted list of algorithm options in order of security strength based on the received selections; generating a security association proposal including one or more of the algorithm options from the respective sorted lists of algorithm options, wherein the security association proposal is generated based on an order in the sorted list of algorithm options; and transmitting the security association proposal to the second communication device for establishing the secure communication channel. receiving, via an input module, a signal representing one or more selections, the respective one or more selections being associated with one of the one or more option categories; for the respective option categories, generating a sorted list of algorithm options in order of security strength based on the received selections; generating a security association proposal including one or more of the algorithm options from the respective sorted lists of algorithm options, wherein the security association proposal is generated based on an order in the sorted list of algorithm options; and transmitting the security association proposal to the second communication device for establishing the secure communication channel.
Container storage system for the transport and/or securing of goods delivered in a container and/or for the subdividing of the container, wherein the container has side walls of trapezoidal sheet with vertical beads, wherein the container storage system comprises: at least two side supports (5a, b), which can be arranged vertically in at least two opposite beads of at least two opposite side walls of the container, wherein the supports (5a, b) each have at least one recess which can be oriented toward the inside of the container to accommodate a cross bar and at least one bearing element is provided in the recess to brace the cross bar, at least one cross bar, which can be installed in the at least two recesses in the at least two supports (5a, b) and which joins together the two supports (5a, b) in the mounted state, at least one securing element (15. 23a, b) provided in each support (5a, b) for securing the at least one cross bar, wherein the at least two supports (5a, b) can be installed in a bead optionally by the front side or the rear side and/or vertically rotated, characterized in that the recesses, bearing elements and/or securing elements are configured or arranged such that the front side and the rear side have a different number of the recesses and/or height of the recesses each with at least one bearing element respectively, and the container storage system can be assembled and disassembled without the use of tools. at least two side supports (5a, b), which can be arranged vertically in at least two opposite beads of at least two opposite side walls of the container, wherein the supports (5a, b) each have at least one recess which can be oriented toward the inside of the container to accommodate a cross bar and at least one bearing element is provided in the recess to brace the cross bar, at least one cross bar, which can be installed in the at least two recesses in the at least two supports (5a, b) and which joins together the two supports (5a, b) in the mounted state, at least one securing element (15. 23a, b) provided in each support (5a, b) for securing the at least one cross bar, wherein the at least two supports (5a, b) can be installed in a bead optionally by the front side or the rear side and/or vertically rotated, characterized in that the recesses, bearing elements and/or securing elements are configured or arranged such that the front side and the rear side have a different number of the recesses and/or height of the recesses each with at least one bearing element respectively, and the container storage system can be assembled and disassembled without the use of tools.
Pipe product comprising a base pipe made of a steel alloy having an inner circumferential surface and an outer circumferential surface, wherein the base tube has a coating system on at least part of the circumferential surfaces, the coating system having the following layered structure: - zinc coating having a predominant zinc portion; - a passivation layer that is free of Cr-VI; - sealing layer; wherein the zinc layer comprises at least three tiers, the tiers being separately and sequentially applied layers, and the tiers each having a layer thickness of 1 μm to 10 μm, the sealing layer comprises organic compounds based on plastics and the sealing layer on the passivation layer has a layer thickness between 0.5 and 3 μm, characterized in that the passivating agent of the passivation layer on the zinc layer contains chromium-III-salts. - zinc coating having a predominant zinc portion; - a passivation layer that is free of Cr-VI; - sealing layer;
A user equipment in a mobile communication system including a base station and the user equipment, the user equipment comprising: selection means configured to receive a plurality of signaling values and a plurality of maximum transmission power values corresponding to the plurality of signaling values respectively from the base station, to select one signaling value of the plurality of signaling values, and to select a maximum transmission power value corresponding to the selected signaling value; and control means configured to perform cell selection or cell reselection by determining whether at least Equation 1, Srxlev > 0, is satisfied in a cell to be determined in the cell selection or cell reselection, wherein Srxlev in Equation 1 is expressed by Equation 2, Srxlev = Q rxlevmeas - (Q rxlevmin + Q rxlevminoffset) - Pcompensation, Q rxlevmeas in Equation 2 denotes a reception level value measured for the cell to be determined, Q rxlevmin in Equation 2 denotes a minimum reception level required for the cell, and Q rxlevminoffset in Equation 2 denotes an offset, Pcompensation in Equation 2 is expressed by Equation 3, max (P EMAX1 - P PowerClass, 0) - (min (P EMAX2, P PowerClass) - min (P EMAX1, P PowerClass)), and P EMAX1 in Equation 3 denotes a predetermined maximum transmission power value, P EMAX2 in Equation 3 denotes a maximum transmission power value selected by the selection means, and P PowerClass in Equation 3 denotes a maximum output power value based on a power class of the user equipment. selection means configured to receive a plurality of signaling values and a plurality of maximum transmission power values corresponding to the plurality of signaling values respectively from the base station, to select one signaling value of the plurality of signaling values, and to select a maximum transmission power value corresponding to the selected signaling value; and control means configured to perform cell selection or cell reselection by determining whether at least Equation 1, Srxlev > 0, is satisfied in a cell to be determined in the cell selection or cell reselection, wherein Srxlev in Equation 1 is expressed by Equation 2, Srxlev = Q rxlevmeas - (Q rxlevmin + Q rxlevminoffset) - Pcompensation, Q rxlevmeas in Equation 2 denotes a reception level value measured for the cell to be determined, Q rxlevmin in Equation 2 denotes a minimum reception level required for the cell, and Q rxlevminoffset in Equation 2 denotes an offset, Pcompensation in Equation 2 is expressed by Equation 3, max (P EMAX1 - P PowerClass, 0) - (min (P EMAX2, P PowerClass) - min (P EMAX1, P PowerClass)), and P EMAX1 in Equation 3 denotes a predetermined maximum transmission power value, P EMAX2 in Equation 3 denotes a maximum transmission power value selected by the selection means, and P PowerClass in Equation 3 denotes a maximum output power value based on a power class of the user equipment.
Method for controlling a towing train consisting of a ship and at least one tug (2, 2.1, 2.2) acting on the ship, comprising the steps of: a) providing a data model which comprises fixed data relating to the ship and relating to the at least one tug (2, 2.1, 2.2) and variable environmental data; b) determining the current course, the thrust vector and the inertial force of the ship and specifying a desired travel direction (Fs) of the ship with a subsequent calculation of the correction force vector and the correction torque required to achieve the desired travel direction (Fs); c) calculating the required positions, orientations, and drive settings of the at least one acting tug (2, 2.1, 2.2) using an algorithm that accesses the data model and generating control commands for the at least one tug (2, 2.1, 2.2) such that the sum of all the force vectors (Fs1, Fs2) and torques of the at least one acting tug (2, 2.1, 2.2) corresponds to the required correction force vector and correction torque; d) transmitting the generated control commands to the at least one acting tug (2, 2.1, 2.2) and monitoring the completion of the control commands; e) conducting an evaluation of the produced correction force vector and correction torque after completion of the control commands and producing and storing correction values in the data model when deviations are detected between the produced correction force vector (K') and the required correction force vector and/or between the produced correction torque (M') and the required correction torque, and then repeating steps c) to e). a) providing a data model which comprises fixed data relating to the ship and relating to the at least one tug (2, 2.1, 2.2) and variable environmental data; b) determining the current course, the thrust vector and the inertial force of the ship and specifying a desired travel direction (Fs) of the ship with a subsequent calculation of the correction force vector and the correction torque required to achieve the desired travel direction (Fs); c) calculating the required positions, orientations, and drive settings of the at least one acting tug (2, 2.1, 2.2) using an algorithm that accesses the data model and generating control commands for the at least one tug (2, 2.1, 2.2) such that the sum of all the force vectors (Fs1, Fs2) and torques of the at least one acting tug (2, 2.1, 2.2) corresponds to the required correction force vector and correction torque; d) transmitting the generated control commands to the at least one acting tug (2, 2.1, 2.2) and monitoring the completion of the control commands; e) conducting an evaluation of the produced correction force vector and correction torque after completion of the control commands and producing and storing correction values in the data model when deviations are detected between the produced correction force vector (K') and the required correction force vector and/or between the produced correction torque (M') and the required correction torque, and then repeating steps c) to e).
A sensor unit for measuring a spatial temperature profile, having: at least one substrate (3, 3") having a first surface and a second surface, which is opposite the first surface at least in some regions, wherein the substrate (3, 3") is designed to be flexible at least in some regions; at least one adhesion means, wherein the adhesion means is arranged at least in some regions on the first surface and/or on the second surface for attaching the sensor unit to at least one measurement body; and at least one sensor field, wherein the sensor field comprises at least two sensor elements (5a, 5a', 5a'', 5a''', 5aʺʺ, 5n, 5n', 5n'', 5nʺʺ) which are in each case adapted for measuring a temperature and which are arranged at different positions on the second surface of the substrate (3, 3"), characterized in that at least one levelling film (17ʺʺ, 17a′′′ʺ, 17n′′′ʺ), which is formed in multiple pieces, is arranged at least in some regions on the second surface of the substrate (3, 3"). at least one substrate (3, 3") having a first surface and a second surface, which is opposite the first surface at least in some regions, wherein the substrate (3, 3") is designed to be flexible at least in some regions; at least one adhesion means, wherein the adhesion means is arranged at least in some regions on the first surface and/or on the second surface for attaching the sensor unit to at least one measurement body; and at least one sensor field, wherein the sensor field comprises at least two sensor elements (5a, 5a', 5a'', 5a''', 5aʺʺ, 5n, 5n', 5n'', 5nʺʺ) which are in each case adapted for measuring a temperature and which are arranged at different positions on the second surface of the substrate (3, 3"), characterized in that at least one levelling film (17ʺʺ, 17a′′′ʺ, 17n′′′ʺ), which is formed in multiple pieces, is arranged at least in some regions on the second surface of the substrate (3, 3").
Slewing ring having a bearing inner ring, a bearing outer ring and rolling bodies which roll between the bearing rings (2, 3), and having a travel limiting means which limits the mutual rotation of the bearing outer ring with respect to the bearing inner ring and comprises a raceway which extends spirally in the direction of the rotational axis D of the slewing ring, with one or two stops and a lug which protrudes into the raceway between the stops, characterized in that the raceway is provided with a plurality of threaded bores, and the stops can be screwed into the threaded bores.
A system having backroom components connected to and exchanging data with one or more fuel dispensers (110, 112) using legacy cabling, wherein the backroom components comprise: a back-up direct current power supply; a legacy interface for communicating with the one or more fuel dispensers using the legacy cabling; a relay for switching between a legacy communication and a powered communication based at least in part on a received control signal; and a microprocessor for communicating the control signal to the relay (214, 252), wherein the system is configured such that: the powered communication passes power from the back-up DC power supply to the one or more fuel dispensers over the legacy cabling and the legacy communication passes signals from the legacy interface to the one or more fuel dispensers over the legacy cabling. a back-up direct current power supply; a legacy interface for communicating with the one or more fuel dispensers using the legacy cabling; a relay for switching between a legacy communication and a powered communication based at least in part on a received control signal; and a microprocessor for communicating the control signal to the relay (214, 252), wherein the system is configured such that: the powered communication passes power from the back-up DC power supply to the one or more fuel dispensers over the legacy cabling and the legacy communication passes signals from the legacy interface to the one or more fuel dispensers over the legacy cabling. the powered communication passes power from the back-up DC power supply to the one or more fuel dispensers over the legacy cabling and the legacy communication passes signals from the legacy interface to the one or more fuel dispensers over the legacy cabling.
A method performed by a network controller for monitoring a data path extending from an originating node to a terminating node in a network, the method being characterized in comprising the steps of: submitting, to the originating node, a request to monitor at least one network status parameter associated with a particular data flow transported on the data path; submitting, to all nodes in the data path, a data flow identifier indicating said particular data flow being one out of a plurality of data flows that can be transported on the data path, wherein network monitoring data can be generated by the nodes in the data path on the basis of the data flow identifier, such that the generated network monitoring data is transported on the same data path as said particular data flow; and receiving, from at least one of the nodes in the data path, a response message comprising the requested at least one network status parameter. submitting, to the originating node, a request to monitor at least one network status parameter associated with a particular data flow transported on the data path; submitting, to all nodes in the data path, a data flow identifier indicating said particular data flow being one out of a plurality of data flows that can be transported on the data path, wherein network monitoring data can be generated by the nodes in the data path on the basis of the data flow identifier, such that the generated network monitoring data is transported on the same data path as said particular data flow; and receiving, from at least one of the nodes in the data path, a response message comprising the requested at least one network status parameter.
An articulating probe head for attaching and orienting a probe (50, 55) relative to a coordinate measuring apparatus, the articulated probe head including - a probe interface for connecting a measuring probe (50, 55); - at least one electric actuator to operate the probe head; - one electronic control unit to control the operation of the probe head; and - at least one cooling element (60, 65) arranged for removing heat generated by said at least one electric actuator and by said electronic control unit, wherein the electronic control unit is configured to activate the at least one cooling element (60, 65) to maintain the temperature of the probe head at a stable value. - a probe interface for connecting a measuring probe (50, 55); - at least one electric actuator to operate the probe head; - one electronic control unit to control the operation of the probe head; and - at least one cooling element (60, 65) arranged for removing heat generated by said at least one electric actuator and by said electronic control unit, wherein
A computer program for installing software on a processing device, the software being used for sending a function performing instruction to a function performing device (40, 50) via a network, the computer program including instructions for ordering a computer mounted on the processing device to: acquire a first IP address assigned to the function performing device (40, 50) in a situation where the processing device is capable of establishing a communication session with the function performing device (40, 50) using the acquired first IP address; acquire a unique network device name provided to the function performing device (40, 50) by using the first IP address; attempt to acquire a second IP address by using the network device name; determine whether the second IP address identical to the first IP address has been acquired; install the software in which the network device name is set as a destination of the function performing instruction in a case where it is determined that the second IP address identical to the first IP address has been acquired (YES in S34); and prohibit the installation of the software in which the network device name is set as the destination of the function performing instruction in a case where it is determined that the second IP address identical to the first IP address has not been acquired (NO in S34). acquire a first IP address assigned to the function performing device (40, 50) in a situation where the processing device is capable of establishing a communication session with the function performing device (40, 50) using the acquired first IP address; acquire a unique network device name provided to the function performing device (40, 50) by using the first IP address; attempt to acquire a second IP address by using the network device name; determine whether the second IP address identical to the first IP address has been acquired; install the software in which the network device name is set as a destination of the function performing instruction in a case where it is determined that the second IP address identical to the first IP address has been acquired (YES in S34); and prohibit the installation of the software in which the network device name is set as the destination of the function performing instruction in a case where it is determined that the second IP address identical to the first IP address has not been acquired (NO in S34).