mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of shared backup path computation in a multiprotocol label switching, MPLS, network, the shared backup path to be used upon a failure of at least one working path of the MPLS network, the method comprising the steps of: determining if a link from a first node of a path list in a MPLS network topology to a second node in the MPLS network topology is a link shared as a backup link between the first node and a third node in the MPLS network topology; creating a cross-connecting label associated with the link if the link is a shared backup link; creating a sub-path maintenance element, SPME, label to be pushed onto a packet to be sent from the first node to the second node of the MPLS network to create a shared backup path, wherein the SPME label includes a business priority indication if the link is a shared backup link and indicates a path over the shared backup link, such that if the at least one working path fails, the packet with the higher business priority gets use of the bandwidth in the shared backup link; and storing the shared backup path in a database of a router in the MPLS network, wherein an SPME is a label switch path, LSP, instantiated for monitoring, protecting and managing label switch paths in an MPLS network domain, wherein an LSP is modelled as a connection consisting of one or more incoming segments and/or one or more outgoing segments at a label switch router, the association of the ingoing segments and outgoing segments being accomplished by using a cross-connecting label. determining if a link from a first node of a path list in a MPLS network topology to a second node in the MPLS network topology is a link shared as a backup link between the first node and a third node in the MPLS network topology; creating a cross-connecting label associated with the link if the link is a shared backup link; creating a sub-path maintenance element, SPME, label to be pushed onto a packet to be sent from the first node to the second node of the MPLS network to create a shared backup path, wherein the SPME label includes a business priority indication if the link is a shared backup link and indicates a path over the shared backup link, such that if the at least one working path fails, the packet with the higher business priority gets use of the bandwidth in the shared backup link; and storing the shared backup path in a database of a router in the MPLS network, wherein an SPME is a label switch path, LSP, instantiated for monitoring, protecting and managing label switch paths in an MPLS network domain, wherein an LSP is modelled as a connection consisting of one or more incoming segments and/or one or more outgoing segments at a label switch router, the association of the ingoing segments and outgoing segments being accomplished by using a cross-connecting label.
Control system for controlling the steering of a motor vehicle in the event of imminent collision with an obstacle (7, 10), the vehicle comprising a system able to locate the vehicle with respect to its traffic lane and able to determine a lateral divergence with respect to the centre of the lane at a target distance and a relative heading angle of the vehicle, a determining means associated with sensors, which is able to determine, in real time, the presence of obstacles positioned laterally with respect to the vehicle and/or positioned frontally and making a relative movement towards the vehicle, a gyrometer able to measure the speed of rotation of the vehicle, and steering of the vehicle able to be controlled in respect of steering angle depending on the measurement of a steering-angle sensor or steering of the vehicle able to be controlled in respect of steering torque, the control system comprising: a perceiving means able to evaluate the position of the obstacles and to determine the maximum lateral distance available for movement of the vehicle with respect to these obstacles, a decision-making means able to send a correction request depending on the path of the vehicle and on the maximum lateral distance, an intervening means able to control the steering of the vehicle in order to correct the path of the vehicle, characterized in that the decision-making means is able to determine position-correcting gains, to store at least one set among the position-correcting gains, and, when among the at least one set of gains there remains only a single gain, to send the correction activation request corresponding to the set containing the remaining gain, the remaining gain being transmitted to the intervening means in order to have the correction executed. a perceiving means able to evaluate the position of the obstacles and to determine the maximum lateral distance available for movement of the vehicle with respect to these obstacles, a decision-making means able to send a correction request depending on the path of the vehicle and on the maximum lateral distance, an intervening means able to control the steering of the vehicle in order to correct the path of the vehicle, characterized in that the decision-making means is able to determine position-correcting gains, to store at least one set among the position-correcting gains, and, when among the at least one set of gains there remains only a single gain, to send the correction activation request corresponding to the set containing the remaining gain, the remaining gain being transmitted to the intervening means in order to have the correction executed.
An Mg-based alloy plated steel material characterized by being provided with a hot dip Mg-based alloy plating layer consisting of Zn: 15 atm% or more, Mg: over 35 atm%, one or more elements selected from the group of elements B: Al, Ca, Y, and La in a total of 0.03 to 15 atm%, optionally one or more elements selected from the group of elements A: Si, Ti, Cr, Cu, Fe, Ni, Zr, Nb, Mo, and Ag in a total of 0.03 to 5 atm%, and unavoidable impurities; wherein said hot dip Mg-based alloy plating layer contains an intermetallic compound Zn 3 Mg 7 in an X-ray intensity ratio (ratio of diffraction peak intensity of Zn 3 Mg 7 (wherein diffraction peak of diffraction plane spacing of 0.233 nm is excluded) in the sum of all diffraction peak intensities appearing at diffraction plane spacing of 0.1089 to 1.766 nm (wherein diffraction peak of diffraction plane spacing of 0.233 nm is excluded)) of 10% or more, wherein the X-ray intensity ratio is measured by Cu-Kα rays using an X-ray tube with Cu target for the X-ray source, and wherein the diffraction peak of Zn 3 Mg 7 is found by referring to the diffraction data charts JCPDS card no. 08-0269. Zn: 15 atm% or more, Mg: over 35 atm%, one or more elements selected from the group of elements B: Al, Ca, Y, and La in a total of 0.03 to 15 atm%, optionally one or more elements selected from the group of elements A: Si, Ti, Cr, Cu, Fe, Ni, Zr, Nb, Mo, and Ag in a total of 0.03 to 5 atm%, and unavoidable impurities;
A method in a first network device (102-A) that is communicatively coupled to a second network device (102-B) in a network, the first network device (102-A) communicatively coupled to a first radio base station (101-A), the second network device (102-B) communicatively coupled to a second RBS (101-B), the method comprising: creating a connection-oriented interface with the first RBS (101-A) for exchanging one or more packets originating from the first RBS (101-A) destined for the first network device (102-A), and for exchanging one or more packets originating from the first network device (102-A) destined for the first RBS (101-A), by: receiving a first HELLO packet originating from the first RBS (101-A) destined for the first network device (102-A), and transmitting, in response to receiving the first HELLO packet, a first HELLO packet destined for the first RBS (101-A); receiving, via the connection-oriented interface, a first CONNECT packet originating from the first RBS (101-A) destined for the first network device (102-A), the first CONNECT packet including a first IP address of the second RBS; and creating, in response to receiving the first CONNECT packet, a first network route between the first RBS and the second RBS using the first IP address of the second RBS included in the first CONNECT packet. creating a connection-oriented interface with the first RBS (101-A) for exchanging one or more packets originating from the first RBS (101-A) destined for the first network device (102-A), and for exchanging one or more packets originating from the first network device (102-A) destined for the first RBS (101-A), by: receiving a first HELLO packet originating from the first RBS (101-A) destined for the first network device (102-A), and transmitting, in response to receiving the first HELLO packet, a first HELLO packet destined for the first RBS (101-A); receiving a first HELLO packet originating from the first RBS (101-A) destined for the first network device (102-A), and transmitting, in response to receiving the first HELLO packet, a first HELLO packet destined for the first RBS (101-A); receiving, via the connection-oriented interface, a first CONNECT packet originating from the first RBS (101-A) destined for the first network device (102-A), the first CONNECT packet including a first IP address of the second RBS; and creating, in response to receiving the first CONNECT packet, a first network route between the first RBS and the second RBS using the first IP address of the second RBS included in the first CONNECT packet.
An isolated, alpha4beta7 heterodimer specific monoclonal antibody having a heavy chain variable region and a light chain variable region, wherein the light chain variable region comprises SEQ ID NO:9, and the heavy chain variable region comprises SEQ ID NO:37.
A vehicle drive control device performing acceleration/deceleration running by alternately repeating acceleration running by operation of a motor and deceleration running by stopping of the motor or interruption of power transmission from the motor, wherein a comparison is made between an efficiency η1 of the motor at a first operation point determined by a rotation speed and a torque of the motor during normal running while the motor is operated depending on an output request amount (Acc) and an efficiency η2 of the motor at a second operation point for outputting a higher torque than the first operation point, and wherein if a difference between the efficiencies is greater than a predetermined determination value, the acceleration running at the second operation point and the deceleration running are repeated, wherein a maximum efficiency line of the motor is stored with the rotation speed and the torque of the motor as parameters in advance, and wherein the second operation point is set on the maximum efficiency line to perform the acceleration running, and characterized by a rotating machine acting at least as an electric generator is included in a power transmission path between the motor and wheels, and wherein if acceleration (dV) during the acceleration running becomes larger than a predetermined acceleration limit value, the rotating machine generates electricity to charge a battery.
A low voltage contact assembly (1, 10) comprising a rotating support having a body adapted to rotate around a rotation axis and supporting at least a first couple of movable contacts that can be coupled to / uncoupled from corresponding first fixed contacts by rotation around said rotation axis, said first couple of movable contacts comprising a first and a second movable contacts housed in said rotating support and each having a corresponding first and second elongated contact body with a contact end (711, 721) protruding from said rotating support, said first and second elongated contact bodies lying parallel to each other in a rotation plane substantially perpendicular to said rotation axis, said low voltage assembly (1, 10) further comprising a pressure exerting device having a pressing bar (31, 32, 33, 34) operatively coupled to said first and second elongated contact body and transversally placed with respect to said rotation plane of said first and second elongated contact bodies, and a first (41, 411) and a second (42, 421) elastic elements positioned at opposite ends of said pressing bar (31, 32, 33, 34), said pressing bar (31, 32, 33, 34) further comprising a first and a second operating surface each comprising a corresponding first (81, 811) and second (82, 821) pressing surface protruding from said pressing bar (31, 32, 33, 34) and respectively acting on said first and second elongated contact body, characterised in that said first (41, 411) and second (42, 421) elastic elements each have a first end fixed on said rotating support and a second end acting on said pressing bar (31, 32, 33, 34).
A method comprising: selectively oxidizing allyl alcohol over a first mixed metal oxide catalyst in the presence of oxygen in the vapor phase to produce acrolein, wherein the first mixed metal oxide catalyst comprises oxides of molybdenum and bismuth. selectively oxidizing allyl alcohol over a first mixed metal oxide catalyst in the presence of oxygen in the vapor phase to produce acrolein, wherein the first mixed metal oxide catalyst comprises oxides of molybdenum and bismuth.
A thermoform packaging machine, comprising a forming tool lower part in the interior of which at least one mold insert is provided, characterized in that the mold insert comprises a mold bottom and sidewalls, wherein said mold insert has on at least one sidewall thereof an undercut for thermoforming a trough to be formed, and wherein the mold insert is movable relative to the forming tool lower part.
A suction device for drawing a liquid product present in a dispenser comprising a reservoir equipped with means for sampling a product, said device extending around a central axis X and comprising: - a centralized product suction channel, coaxial with the central axis X, and having an inlet and an outlet; - annular suction means connected to the inlet of the centralized suction channel and comprising a deflection body of the product defining an annular passage opening onto the inlet of the centralized suction channel, said deflection body consisting of a body of revolution about the central axis X and comprising: ∘ an upper part provided with a central orifice corresponding to the inlet of the centralized suction channel, a sleeve delimiting the centralized suction channel extending from this upper part; ∘ a lower part without an orifice, following the profile of the upper part; the annular passage being defined between the upper part and the lower part, characterized in that the lower part of the body has a bowl shape and is deformable between a first stable concave shape obtained from the outlet of the mold and a second stable convex shape obtained by turning over and corresponding to its operational shape for annular suction. - a centralized product suction channel, coaxial with the central axis X, and having an inlet and an outlet; - annular suction means connected to the inlet of the centralized suction channel and comprising a deflection body of the product defining an annular passage opening onto the inlet of the centralized suction channel, said deflection body consisting of a body of revolution about the central axis X and comprising: ∘ an upper part provided with a central orifice corresponding to the inlet of the centralized suction channel, a sleeve delimiting the centralized suction channel extending from this upper part; ∘ a lower part without an orifice, following the profile of the upper part; ∘ an upper part provided with a central orifice corresponding to the inlet of the centralized suction channel, a sleeve delimiting the centralized suction channel extending from this upper part; ∘ a lower part without an orifice, following the profile of the upper part; the annular passage being defined between the upper part and the lower part, characterized in that the lower part of the body has a bowl shape and is deformable between a first stable concave shape obtained from the outlet of the mold and a second stable convex shape obtained by turning over and corresponding to its operational shape for annular suction.
A network configuration method, applied to a first image-forming apparatus, the method characterized by comprising: establishing, by the first image-forming apparatus, wireless connection with n second image-forming apparatuses (2,..., n+1), wherein n is an integer greater than or equal to 1, and wherein each of the first image-forming apparatus and the n second image-forming apparatuses (2,...- n+1) is a device that forms images on a recording medium based on an image-forming principle; updating, by the first image-forming apparatus, a connection state information table pre-stored according to the wireless connection established with the n second image-forming apparatuses (2,..., n+1); based on the updated connection state information table, determining, by the first image-forming apparatus, m image-forming apparatuses to-be-connected-to-network, wherein m is an integer greater than or equal to 0; and sending, by the first image-forming apparatus, network connection information for connecting a local area network to the m image-forming apparatuses to-be-connected-to-network, connecting the m image-forming apparatuses to-be-connected-to-network to the local area network according to the network connection information. establishing, by the first image-forming apparatus, wireless connection with n second image-forming apparatuses (2,..., n+1), wherein n is an integer greater than or equal to 1, and wherein each of the first image-forming apparatus and the n second image-forming apparatuses (2,...- n+1) is a device that forms images on a recording medium based on an image-forming principle; updating, by the first image-forming apparatus, a connection state information table pre-stored according to the wireless connection established with the n second image-forming apparatuses (2,..., n+1); based on the updated connection state information table, determining, by the first image-forming apparatus, m image-forming apparatuses to-be-connected-to-network, wherein m is an integer greater than or equal to 0; and sending, by the first image-forming apparatus, network connection information for connecting a local area network to the m image-forming apparatuses to-be-connected-to-network, connecting the m image-forming apparatuses to-be-connected-to-network to the local area network according to the network connection information.
A kerb barrier (100, 200) comprising: a first barrier member (102, 202) having a length, the first barrier member defining a cavity; and a second barrier member (118, 218) in the cavity of the first barrier member that extends substantially along the length of the first barrier member, wherein a base (120, 220) of the second barrier member is fixable to a base (110, 210) of the first barrier member, characterised in that, upon side impact, a region of the first barrier member is configured to bend relative to the second barrier member about a first bending point (138, 238) defined by the first barrier member, wherein the first barrier member (102, 202) is configured to act on the second barrier member such that the region of the first barrier member and a region of the second barrier member are configured to bend about a second bending point (140, 240) defined by the second barrier member, wherein the second bending point (140, 240) is spaced apart from the first bending point (138, 238) wherein, in an undeformed state, a clearance gap (136, 236) is provided between a wall (104, 204) of the first barrier member and a wall (122, 222) of the second barrier member. a first barrier member (102, 202) having a length, the first barrier member defining a cavity; and a second barrier member (118, 218) in the cavity of the first barrier member that extends substantially along the length of the first barrier member, wherein a base (120, 220) of the second barrier member is fixable to a base (110, 210) of the first barrier member, characterised in that, upon side impact, a region of the first barrier member is configured to bend relative to the second barrier member about a first bending point (138, 238) defined by the first barrier member, wherein the first barrier member (102, 202) is configured to act on the second barrier member such that the region of the first barrier member and a region of the second barrier member are configured to bend about a second bending point (140, 240) defined by the second barrier member, wherein the second bending point (140, 240) is spaced apart from the first bending point (138, 238) wherein, in an undeformed state, a clearance gap (136, 236) is provided between a wall (104, 204) of the first barrier member and a wall (122, 222) of the second barrier member.
Method for detecting a target moiety in a sample of biological specimens by: a) providing at least one conjugate with the general formula X n - P - Y m, with X is a detection moiety, P an acidic or basic degradable spacer and Y an antigen or oligonucleotide recognizing moiety and n, m are integers between 1 and 100 and wherein X and Y are covalently bound to P, b) binding the conjugate to the target moiety via the antigen or oligonucleotide recognizing moiety Y, thereby labelling the target moiety, c) detecting the target moiety labelled with the conjugate by detecting the detecting moiety X, d) providing at least one precursor which is capable of releasing an acid or base when provided with radiation wherein the acid or base is capable of cleaving P, e) activating the precursor by providing radiation, thereby releasing the acid or base capable of cleaving P, and f) degrading spacer P with the released acid or base, thereby cleaving the detection moiety X from the conjugated detection moiety. a) providing at least one conjugate with the general formula X n - P - Y m, with X is a detection moiety, P an acidic or basic degradable spacer and Y an antigen or oligonucleotide recognizing moiety and n, m are integers between 1 and 100 and wherein X and Y are covalently bound to P, b) binding the conjugate to the target moiety via the antigen or oligonucleotide recognizing moiety Y, thereby labelling the target moiety, c) detecting the target moiety labelled with the conjugate by detecting the detecting moiety X, d) providing at least one precursor which is capable of releasing an acid or base when provided with radiation wherein the acid or base is capable of cleaving P, e) activating the precursor by providing radiation, thereby releasing the acid or base capable of cleaving P, and f) degrading spacer P with the released acid or base, thereby cleaving the detection moiety X from the conjugated detection moiety.