mhurhangee/ep-ind-claims huggingface dataset:
A crankshaft for a reciprocating engine, the crankshaft configured to be mounted in a reciprocating engine, the crankshaft comprising: journals that define a central axis of rotation; crank pins that are eccentric with respect to the journals; and crank arms, each of the crank arms connecting a corresponding one of the journals to a corresponding one of the crank pins, wherein at least one of the crank arms integrally includes a counterweight, and wherein the crank arms have a recess in a surface adjacent to the corresponding one of the journals, and characterized in the recess being disposed inward of two sides of a crank arm of a peripheral region along a periphery of the surface, the recess being disposed along the peripheral region, so that, in the crank arm, a central region inward of the recess is thicker than the recess. journals that define a central axis of rotation; crank pins that are eccentric with respect to the journals; and crank arms, each of the crank arms connecting a corresponding one of the journals to a corresponding one of the crank pins, wherein at least one of the crank arms integrally includes a counterweight, and wherein the crank arms have a recess in a surface adjacent to the corresponding one of the journals, and characterized in the recess being disposed inward of two sides of a crank arm of a peripheral region along a periphery of the surface, the recess being disposed along the peripheral region, so that, in the crank arm, a central region inward of the recess is thicker than the recess.
Photovoltaic device comprising: - an assembly comprising n photovoltaic cells (160, 260), n being higher than or equal to 2, - a lamination interlayer placed between each photovoltaic cell, each photovoltaic cell comprising: o two current output terminals (185, 185'), o at least one photovoltaic junction (150, 250), o current-collecting buses (180, 180'), and o connecting strips (190, 190') that extend from the current-collecting buses to the current output terminals, the device being parallelepiped shaped and all the current output terminals being placed on the lower face of the parallelepiped of the photovoltaic device, wherein the current output terminals are contacts (500, 500') at the ends of the connecting strips (190, 190') and configured to be connected to a junction box via plugs (400, 400') of different lengths of the junction box, and wherein the device comprises: - a front photovoltaic cell, - at least one intermediate photovoltaic cell i, with 1<i<n, if n is strictly greater than 2, - a back photovoltaic cell n, each intermediate photovoltaic cell i comprising 2(i-1) apertures (351, 352) in order to allow the contacts of the photovoltaic cells 1 to (i-1) to be able to coincide with the plugs of the junction box and optionally two apertures (350, 353) in order to allow the contacts of the photovoltaic cell i to be able to coincide with the plugs of the junction box, the back photovoltaic cell n comprising 2(n-1) apertures in order to allow the contacts of the photovoltaic cells 1 to (n-1) to be able to coincide with the plugs of the junction box and optionally two additional apertures (370, 377) in order to allow the contacts of the photovoltaic cell n to be able to coincide with the plugs of the junction box. - an assembly comprising n photovoltaic cells (160, 260), n being higher than or equal to 2, - a lamination interlayer placed between each photovoltaic cell, each photovoltaic cell comprising: o two current output terminals (185, 185'), o at least one photovoltaic junction (150, 250), o current-collecting buses (180, 180'), and o connecting strips (190, 190') that extend from the current-collecting buses to the current output terminals, o two current output terminals (185, 185'), o at least one photovoltaic junction (150, 250), o current-collecting buses (180, 180'), and o connecting strips (190, 190') that extend from the current-collecting buses to the current output terminals, - a front photovoltaic cell, - at least one intermediate photovoltaic cell i, with 1<i<n, if n is strictly greater than 2, - a back photovoltaic cell n,
An automatic steering system for a work vehicle (10, 50) comprising: a position sensor (38, 66) for detecting a position of the vehicle (10, 50); a memory for storing information about a nominal path of the vehicle (10, 50); and a control unit coupled to the position sensor (38, 66), to the memory and to a steering actuator, the control unit operable to submit control signals to the steering actuator that depend upon a feedback gain and a lateral offset between the actual position and the nominal path, characterized in that the control unit is connected to at least one sensor (48, 74, 76) providing a signal related to the payload of the vehicle (10, 50), and that the feedback gain depends upon the sensed payload of the vehicle (10, 50). a position sensor (38, 66) for detecting a position of the vehicle (10, 50); a memory for storing information about a nominal path of the vehicle (10, 50); and a control unit coupled to the position sensor (38, 66), to the memory and to a steering actuator, the control unit operable to submit control signals to the steering actuator that depend upon a feedback gain and a lateral offset between the actual position and the nominal path, characterized in that the control unit is connected to at least one sensor (48, 74, 76) providing a signal related to the payload of the vehicle (10, 50), and that the feedback gain depends upon the sensed payload of the vehicle (10, 50).
A method for a radio network node in a Long Term Evolution, LTE, mobile telecommunications network supporting multiple configurations associated with radio network temporary identifiers, RNTIs, and corresponding scheduling methods, the radio network node being connected to a User Equipment, UE, and being adopted to configure the UE with a first RNTI associated with a first configuration of the multiple configurations and at least a second RNTI associated with a second configuration of the multiple configurations, and wherein the first configuration and the second configuration specifies a first scheduling method and a second scheduling method each comprising a number of rules which the UE should obey for sending and receiving data, the method comprising: - activating the first configuration or the second configuration by including the first RNTI or the second RNTI in a transmission to the UE on a Physical Downlink Control Channel, PDCCH, of the LTE network. - activating the first configuration or the second configuration by including the first RNTI or the second RNTI in a transmission to the UE on a Physical Downlink Control Channel, PDCCH, of the LTE network.
A method performed by a base station in a wireless communication system, the method comprising: identifying configuration information for the single carrier-based signal transmission; transmitting, to two or more terminals, the configuration information; and transmitting, to the two or more terminals, a downlink signal on a symbol for a single carrier waveform according to the configuration information, wherein the symbol for the single carrier waveform is divided into two or more sub-symbol parts and the two or more sub-symbol parts are associated with the two or more terminals, respectively, and wherein the configuration information includes information regarding resources to which the single carrier-based signal transmission is applied. identifying configuration information for the single carrier-based signal transmission; transmitting, to two or more terminals, the configuration information; and transmitting, to the two or more terminals, a downlink signal on a symbol for a single carrier waveform according to the configuration information, wherein the symbol for the single carrier waveform is divided into two or more sub-symbol parts and the two or more sub-symbol parts are associated with the two or more terminals, respectively, and wherein the configuration information includes information regarding resources to which the single carrier-based signal transmission is applied.
A battery module, comprising: - a housing; - a venting assembly comprising a vent guide disposed in a vent chamber; - a plurality of prismatic battery cells disposed in the housing, wherein each of the plurality of battery cells comprises a battery cell vent for venting gases from within the corresponding battery cell; - a printed circuit board configured to control operations of the battery module, wherein the PCB is disposed above the plurality of battery cells, wherein the battery cell vents of each of the plurality of battery cells are configured to vent the gases upward in a direction of the PCB; and - a lid including the venting assembly, wherein the lid is disposed over the plurality of battery cells and holds the PCB above the plurality of battery cells, wherein the vent chamber comprises a hollowed out portion of the lid, and wherein the lid is made of plastic, wherein the vent chamber and the vent guide are disposed between the plurality of battery cells and the PCB, wherein the vent chamber is configured to direct the gases vented from the battery cell vent toward an opening for venting the gases from the battery module, wherein the vent chamber comprises a first end disposed above one of the prismatic battery cells proximate the opening and a second end disposed above another of the prismatic battery cells that is farthest from the opening, characterized in that the vent guide is made of steel. - a housing; - a venting assembly comprising a vent guide disposed in a vent chamber; - a plurality of prismatic battery cells disposed in the housing, wherein each of the plurality of battery cells comprises a battery cell vent for venting gases from within the corresponding battery cell; - a printed circuit board configured to control operations of the battery module, wherein the PCB is disposed above the plurality of battery cells, wherein the battery cell vents of each of the plurality of battery cells are configured to vent the gases upward in a direction of the PCB; and - a lid including the venting assembly, wherein the lid is disposed over the plurality of battery cells and holds the PCB above the plurality of battery cells, wherein the vent chamber comprises a hollowed out portion of the lid, and wherein the lid is made of plastic,
Head-up display having an imaging unit which generates images, and having an optical means, wherein the optical means is configured to project the images into at least two projection surfaces (Iv1, Iv2), wherein the two projection surfaces (Iv1, Iv2) in each case have a different distance from the eye of an observer, wherein the imaging unit is further configured to simultaneously or successively produce a plurality of images, wherein the at least two projection surfaces (Iv1, Iv2) are configured to simultaneously or successively display the plurality of images in the respective projection surface, wherein in the case that the plurality of images are successively displayed, the frequency of the generated images is so high that it is no longer resolvable for the human eye, characterized in that the optical means has at least one movable part, wherein the movable part is configured, owing to the movement thereof, to switch between the projection surfaces (Iv1, Iv2).
High-frequency amplifier arrangement comprising a. an amplifier part having an output with two output connections (101, 102), b. a balun having an input with two input connections (106, 107) and an output with two output connections (111, 112), i. one output connection (101, 102) of the amplifier part being connected to one input connection (106, 107) of the balun in each case, ii. one output connection of the balun being connected to ground, iii. one output connection of the balun being connectable to a load, iv. a first capacitance being provided between one input connection of the balun and ground, v. a second capacitance being provided between the second input connection of the balun and ground, the first capacitance being unequal to the second capacitance, characterized in that the difference between the first capacitance and the second capacitance has a proportion proportional to the product of a parasitic capacitance of the balun between one of the input connections (106, 107) and one of the output connections (111, 112) of the balun and/or to ground, and the transmission ratio of the balun. a. an amplifier part having an output with two output connections (101, 102), b. a balun having an input with two input connections (106, 107) and an output with two output connections (111, 112), i. one output connection (101, 102) of the amplifier part being connected to one input connection (106, 107) of the balun in each case, ii. one output connection of the balun being connected to ground, iii. one output connection of the balun being connectable to a load, iv. a first capacitance being provided between one input connection of the balun and ground, v. a second capacitance being provided between the second input connection of the balun and ground, the first capacitance being unequal to the second capacitance, i. one output connection (101, 102) of the amplifier part being connected to one input connection (106, 107) of the balun in each case, ii. one output connection of the balun being connected to ground, iii. one output connection of the balun being connectable to a load, iv. a first capacitance being provided between one input connection of the balun and ground, v. a second capacitance being provided between the second input connection of the balun and ground, the first capacitance being unequal to the second capacitance,
An Internet Protocol Security, IPSec, acceleration method, wherein the method is performed by an Internet Key Exchange, IKE, module deployed in a first device, the first device communicates with a second device and a peer device, and the method comprises: generating, by the IKE module, an IKE link establishment session packet according to an IPSec configuration parameter and a security policy that is in a security policy database, SPD; sending, by the IKE module, the IKE link establishment session packet to the peer device, and establishing a security association, SA, with the peer device; and sending, by the IKE module, the SA to a data forwarding module deployed in the second device. generating, by the IKE module, an IKE link establishment session packet according to an IPSec configuration parameter and a security policy that is in a security policy database, SPD; sending, by the IKE module, the IKE link establishment session packet to the peer device, and establishing a security association, SA, with the peer device; and sending, by the IKE module, the SA to a data forwarding module deployed in the second device.
Method for additively manufacturing three-dimensional objects based on build data, which build data define at least one part of an object to be built in the additive manufacturing process, in particular a geometrical structure of the object, comprising steps of - generating build data comprising at least two sub-data sets (3, 4) relating to different geometrical parts of the object - defining at least one sub-data set (3, 4) as open sub-data set - locking all sub-data sets except the at least one open sub-data set, wherein the locked sub-data sets are unchangeable and the at least one open sub-data set is changeable - additively manufacturing at least one three-dimensional object based on the build data, characterized by further - generating object information in the at least one open sub-data set that allow for individually identifying the specific object and relating the object to a specific manufacturing process in which the object was manufactured, wherein the open sub-data set is changed. - generating build data comprising at least two sub-data sets (3, 4) relating to different geometrical parts of the object - defining at least one sub-data set (3, 4) as open sub-data set - locking all sub-data sets except the at least one open sub-data set, wherein the locked sub-data sets are unchangeable and the at least one open sub-data set is changeable - additively manufacturing at least one three-dimensional object based on the build data, characterized by further - generating object information in the at least one open sub-data set that allow for individually identifying the specific object and relating the object to a specific manufacturing process in which the object was manufactured, wherein the open sub-data set is changed.
A tensioner comprising: a base; a pivot arm pivotally engaged with the base about a shaft; a torsion spring engaged between the base and the pivot arm, the torsion spring being loadable by movement of the arm in an unwinding direction; a damping mechanism frictionally engaged with an arm inner surface and in a pressing engagement with the base, and further bearing upon a stop on the base; and the damping mechanism being urged radially outward into engagement with the inner surface of the arm as the torsion spring is loaded in the unwinding direction and by a pivotal motion of the damping mechanism about the stop. a base; a pivot arm pivotally engaged with the base about a shaft; a torsion spring engaged between the base and the pivot arm, the torsion spring being loadable by movement of the arm in an unwinding direction; a damping mechanism frictionally engaged with an arm inner surface and in a pressing engagement with the base, and further bearing upon a stop on the base; and the damping mechanism being urged radially outward into engagement with the inner surface of the arm as the torsion spring is loaded in the unwinding direction and by a pivotal motion of the damping mechanism about the stop.
A method for density threshold matrix generation for three-dimensional printing, the method comprising: determining, based on a skeleton line specification of a lattice structure that is to be used to generate an output object and a density rank matrix size specification representing the size of the period of the lattice structure, dimensions of a 3D density rank matrix; determining, based on the dimensions of the density rank matrix, a number of elements of the density rank matrix; determining, for each of the elements, a rank value indicating an order in which voxels are to be solidified as a density of an object to be generated increases, wherein determining the rank value comprises: determining the distances of each element from each specified line of a line skeleton of the lattice structure; determining, from the distances, a minimum distance for each of the elements; sorting the elements according to corresponding minimum distances defined by the minimum distance for each of the elements; replacing each of the elements with a rank value that corresponds to an order of the sorting of the elements; and normalizing the density rank matrix to generate a density threshold matrix for use in processing a specification of a three-dimensional input object by comparing each element of the three-dimensional input object against a corresponding threshold value in the density threshold matrix to determine whether to generate a voxel in object generation. determining, based on a skeleton line specification of a lattice structure that is to be used to generate an output object and a density rank matrix size specification representing the size of the period of the lattice structure, dimensions of a 3D density rank matrix; determining, based on the dimensions of the density rank matrix, a number of elements of the density rank matrix; determining, for each of the elements, a rank value indicating an order in which voxels are to be solidified as a density of an object to be generated increases, wherein determining the rank value comprises: determining the distances of each element from each specified line of a line skeleton of the lattice structure; determining, from the distances, a minimum distance for each of the elements; sorting the elements according to corresponding minimum distances defined by the minimum distance for each of the elements; determining the distances of each element from each specified line of a line skeleton of the lattice structure; determining, from the distances, a minimum distance for each of the elements; sorting the elements according to corresponding minimum distances defined by the minimum distance for each of the elements; replacing each of the elements with a rank value that corresponds to an order of the sorting of the elements; and normalizing the density rank matrix to generate a density threshold matrix for use in processing a specification of a three-dimensional input object by comparing each element of the three-dimensional input object against a corresponding threshold value in the density threshold matrix to determine whether to generate a voxel in object generation.
A method for blocking a cryptographic device, wherein a pair consisting of the cryptographic device and a computer system (1, 2,..., i,...l) is associated with an identifier, after a method for generating this identifier, for identifying the pair, wherein the cryptographic device has a first secret key, wherein a second secret key (118.i) is associated with the computer system (i), wherein a blocking system for blocking the use of the cryptographic device and for accessing the second secret key (118.i) of the computer system (i) is provided, wherein the blocking system has a third secret key, and wherein the following steps are carried out for generating the identifier: - generating a second public key (116.i), by way of the blocking system, from the second secret key (118.i) and a third public key associated with the third secret key, - transmitting the second public key (116.i) to the computer system (i), and - generating the identifier, by way of the cryptographic device, from the first secret key and the second public key (116.i), wherein the blocking method comprises the following steps: - computing the identifier from a first public key, the second secret key (118.i) and the third secret key by way of the blocking system, wherein the first public key belongs to the first secret key of the cryptographic device and together therewith forms an asymmetric cryptographic key pair, - transmitting the identifier to the computer system (i), - storing the identifier in a blocking list (138.i) of the computer system (i). - generating a second public key (116.i), by way of the blocking system, from the second secret key (118.i) and a third public key associated with the third secret key, - transmitting the second public key (116.i) to the computer system (i), and - generating the identifier, by way of the cryptographic device, from the first secret key and the second public key (116.i), - computing the identifier from a first public key, the second secret key (118.i) and the third secret key by way of the blocking system, wherein the first public key belongs to the first secret key of the cryptographic device and together therewith forms an asymmetric cryptographic key pair, - transmitting the identifier to the computer system (i), - storing the identifier in a blocking list (138.i) of the computer system (i).
Valve unit for an installation for producing a medical preparation, particularly a parenteral nutrition preparation, comprising a housing with a plurality of inflows (3a-31) and one outflow, wherein the inflows (3a-31) are connectable to the outflow by means of valves, characterized in that the valves are configured as at least 3-way valves, wherein the valve comprises at least two inflows (3a-31) and one outflow, such that two source containers are connectable to a single valve.