mhurhangee/patent-ind-claim-en huggingface dataset:
A computation device for performing a computation on at least a set of values, the computation device comprising: - a memory configured to store the set of values, each value of the set of values being stored as a plurality of shares that define the value; - a processor configured to: - perform an operation of the computation on a set of input values to obtain an output value , the output value being defined by at least one shared share (143.1,144.1, 245.1,246.1) and at least one computed share, the at least one shared share also defining a further value , performing the operation comprising computing the at least one computed share from the at least one shared share and shares of the set of input values. - a memory configured to store the set of values, each value of the set of values being stored as a plurality of shares that define the value; - a processor configured to: - perform an operation of the computation on a set of input values to obtain an output value , the output value being defined by at least one shared share (143.1,144.1, 245.1,246.1) and at least one computed share, the at least one shared share also defining a further value , performing the operation comprising computing the at least one computed share from the at least one shared share and shares of the set of input values.
An electronic device comprising: an antenna ; a display ; a housing forming at least a portion of an exterior of the electronic device; a printed circuit board disposed within the housing; a connector disposed on the printed circuit board; a wire electrically connecting the connector and the display; a noise reduction circuit comprising a plurality of filters (132-1, 132-2) disposed on the printed circuit board and a switch selectively connecting the connector to one or more of the plurality of filters; and at least one processor electrically connected with the antenna, the display, and the switch, wherein the at least one processor is configured to: feed a power to the antenna; transmit/receive a signal in a specified frequency band of a plurality of frequency bands through the antenna supplied with the power; determine whether the display is in an On state or an Off state; and if it is determined that the display is in the On state, control the switch to connect the connector to one or more of the plurality of filters corresponding to the specified frequency band; and if it is determined that the display is in the Off state, control the switch such that the plurality of filters are disconnected from the connector. an antenna ; a display ; a housing forming at least a portion of an exterior of the electronic device; a printed circuit board disposed within the housing; a connector disposed on the printed circuit board; a wire electrically connecting the connector and the display; a noise reduction circuit comprising a plurality of filters (132-1, 132-2) disposed on the printed circuit board and a switch selectively connecting the connector to one or more of the plurality of filters; and at least one processor electrically connected with the antenna, the display, and the switch, wherein the at least one processor is configured to: feed a power to the antenna; transmit/receive a signal in a specified frequency band of a plurality of frequency bands through the antenna supplied with the power; determine whether the display is in an On state or an Off state; and if it is determined that the display is in the On state, control the switch to connect the connector to one or more of the plurality of filters corresponding to the specified frequency band; and if it is determined that the display is in the Off state, control the switch such that the plurality of filters are disconnected from the connector. feed a power to the antenna; transmit/receive a signal in a specified frequency band of a plurality of frequency bands through the antenna supplied with the power; determine whether the display is in an On state or an Off state; and if it is determined that the display is in the On state, control the switch to connect the connector to one or more of the plurality of filters corresponding to the specified frequency band; and if it is determined that the display is in the Off state, control the switch such that the plurality of filters are disconnected from the connector.
A computer based method comprising the steps of: receiving a 3D geometric model of a part, the geometric model comprising a boundary shape; pre-processing the geometric model to produce a variable-void mesh; pre-processing the geometric model to produce a frozen mesh representing the boundary shape; apportioning the geometric model into a plurality of voxels ; adjusting a density value for each voxel of the plurality of voxels according to an optimization process; extracting an extracted iso-surface mesh from the voxel data; deriving a mesh Boolean intersection between the extracted iso-surface mesh and the variable-void mesh; and performing a mesh Boolean union between the mesh Boolean intersection and the frozen mesh, wherein pre-processing the geometric model to produce a variable-void mesh further comprises the steps of: defining a variable model comprising a region of the geometric model where a material density is variable; defining a void model comprising a region of the geometric model where material is absent; subtracting the void model from the variable model to create a variable-void model; and generating the variable-void mesh from the variable-void model. receiving a 3D geometric model of a part, the geometric model comprising a boundary shape; pre-processing the geometric model to produce a variable-void mesh; pre-processing the geometric model to produce a frozen mesh representing the boundary shape; apportioning the geometric model into a plurality of voxels ; adjusting a density value for each voxel of the plurality of voxels according to an optimization process; extracting an extracted iso-surface mesh from the voxel data; deriving a mesh Boolean intersection between the extracted iso-surface mesh and the variable-void mesh; and performing a mesh Boolean union between the mesh Boolean intersection and the frozen mesh, wherein pre-processing the geometric model to produce a variable-void mesh further comprises the steps of: defining a variable model comprising a region of the geometric model where a material density is variable; defining a void model comprising a region of the geometric model where material is absent; subtracting the void model from the variable model to create a variable-void model; and generating the variable-void mesh from the variable-void model.
Method for loading cargo areas of means of transport movable on a transport area with cargo such as bags or other packaged goods, wherein cargo items are successively supplied by way of a feeding device and transferred to a downstream acceleration conveyor for transporting further and at a delivery end of a delivery device they are finally delivered one by one to the cargo area of the movable means of transport , wherein for automatic, adjoining deposit, controlled by a controller, of a row of cargo items on the cargo area of the movable means of transport , the acceleration conveyor is laterally pivoted in the longitudinal direction relative to a base position and the delivery end of the delivery device is correspondingly moved in the longitudinal direction to enable an automatic longitudinal compensation for a longitudinal offset caused by the pivoting motion of the acceleration conveyor and in particular to enable high load density on the cargo area , characterized in that by means of a drive controlled by the controller, the acceleration conveyor accelerates a cargo item faster if it is to be positioned in a lateral position which lies at least partially outside the lateral pivoting range of the delivery device .
A high voltage DC power cable (1-1; 1-2; 1-3) designed for voltages of 320 kV or higher, comprising: a multi-wire conductor , an inner semiconducting layer arranged around the multi-wire conductor , the inner semiconducting layer forming a screen layer for the multi-wire conductor , a solid insulation system arranged around the inner semiconducting layer , and a water-blocking compound configured to restrict water migration into the high voltage DC power cable (1-1; 1-2; 1-3), wherein the water-blocking compound is electrically conducting, characterised in that the water-blocking compound is a liquid with a viscosity greater than 20 Pα · s at a temperature of 20°C, and in that the water-blocking compound comprises a carbon-based component which provides the electric conductivity of the water-blocking compound , wherein the carbon-based component is graphite, wherein the water-blocking compound comprises polybutadiene, and an antioxidant. a multi-wire conductor , an inner semiconducting layer arranged around the multi-wire conductor , the inner semiconducting layer forming a screen layer for the multi-wire conductor , a solid insulation system arranged around the inner semiconducting layer , and a water-blocking compound configured to restrict water migration into the high voltage DC power cable (1-1; 1-2; 1-3), wherein the water-blocking compound is electrically conducting, characterised in that the water-blocking compound is a liquid with a viscosity greater than 20 Pα · s at a temperature of 20°C, and in that the water-blocking compound comprises a carbon-based component which provides the electric conductivity of the water-blocking compound , wherein the carbon-based component is graphite, wherein the water-blocking compound comprises polybutadiene, and an antioxidant.
Roofing of a building composed of multiple metallic covering sheets (14; 14A) comprising a metallic roofing accessory (1; 1A to 1D), said accessory (1; 1A to 1D) being rectangular and comprising, along its width, two parts (2, 3; 3A; 2D) having main planes (P2, P3) forming between each other an angle (α) comprised between 75° and 105°, a first part (2; 2D) of said accessory (1; 1A to 1D) being provided with at least one overlapping contact zone (S) by a part of a sheet forming the roofing, a second part (3; 3A) of said accessory (1; 1A to 1D) defining an edge strip, such that the width (L2) of the first part is at least equal to half the distance (D) separating two reliefs of a sheet forming the roofing, characterized in that the contact zone includes multiple contact elements, formed by reliefs arranged on one side of the accessory (1; 1A to 1C), parallel to each other, and positioned along a direction parallel to the length (L) of the accessory (1; 1A to 1C) and in that the reliefs form contact elements intended to cooperate with the covering sheet, forming the roofing.
A method for extending a boom, comprising: placing a drive train assembly in a start configuration in which an engagement member of the drive train assembly is coupled to an inner telescoping segment of the boom; rotating a spool in a first direction so as to unwind a slit-tube that is coupled to the engagement member; causing the inner telescoping segment to move in a direction away from a proximal end of the boom as the slit-tube is being unwound from the spool; and coupling the inner telescoping segment to an adjacent telescoping segment when the inner telescoping segment reaches an extended position; wherein the slit-tube extends a distance inside the boom that is equal to or less than a length of the adjacent telescoping segment when the inner telescoping segment is in the extended position. placing a drive train assembly in a start configuration in which an engagement member of the drive train assembly is coupled to an inner telescoping segment of the boom; rotating a spool in a first direction so as to unwind a slit-tube that is coupled to the engagement member; causing the inner telescoping segment to move in a direction away from a proximal end of the boom as the slit-tube is being unwound from the spool; and coupling the inner telescoping segment to an adjacent telescoping segment when the inner telescoping segment reaches an extended position; wherein the slit-tube extends a distance inside the boom that is equal to or less than a length of the adjacent telescoping segment when the inner telescoping segment is in the extended position.
A method for a User Equipment, UE , performing a Secondary Cell Group, SCG, change procedure in a wireless communication system, the method comprising: configuring a master cell group, MCG, of serving cells related to a master eNB, MeNB, including a Primary Cell, PCell, and at least one Secondary Cell, SCell, and a SCG of serving cells related to a secondary eNB, SeNB, including a Primary-Secondary Cell, PSCell, and at least one SCell; receiving a Radio Resource Control, RRC, reconfiguration message for the SCG change procedure while maintaining a connection with the MeNB, wherein the SCG change procedure is used for a first case when the PSCell is changed to the same PSCell and a security key is to be changed; and deactivating the at least one SCell of the SCG based on the received RRC reconfiguration message being for the SCG change procedure for the first case. configuring a master cell group, MCG, of serving cells related to a master eNB, MeNB, including a Primary Cell, PCell, and at least one Secondary Cell, SCell, and a SCG of serving cells related to a secondary eNB, SeNB, including a Primary-Secondary Cell, PSCell, and at least one SCell; receiving a Radio Resource Control, RRC, reconfiguration message for the SCG change procedure while maintaining a connection with the MeNB, wherein the SCG change procedure is used for a first case when the PSCell is changed to the same PSCell and a security key is to be changed; and deactivating the at least one SCell of the SCG based on the received RRC reconfiguration message being for the SCG change procedure for the first case.
An additive manufacturing method by deposition of molten wire in successive layers on a printing support in a manufacturing chamber to manufacture a three-dimensional part, comprising the following steps: - a feeding step of at least one raw material, - a step of processing the raw material into molten material in a fixed processing unit located outside said manufacturing chamber , - a step of conveying the molten material at its processing temperature and viscosity in a flexible heating tube from said fixed processing unit to a mobile deposition unit located in said manufacturing chamber , and - a step of depositing said molten material in the form of a molten wire in successive layers on said printing support by said mobile deposition unit until the part to be manufactured is obtained. - a feeding step of at least one raw material, - a step of processing the raw material into molten material in a fixed processing unit located outside said manufacturing chamber , - a step of conveying the molten material at its processing temperature and viscosity in a flexible heating tube from said fixed processing unit to a mobile deposition unit located in said manufacturing chamber , and - a step of depositing said molten material in the form of a molten wire in successive layers on said printing support by said mobile deposition unit until the part to be manufactured is obtained.
A composite fan blade comprising: a metallic sheath having a body comprising: a leading edge portion configured to cover a leading edge of the blade ; an extension portion with an encapsulation portion , the extension portion having a top surface adjacent the leading edge portion and being configured to cover a portion of a tip of the blade along an intermediate chord length , the encapsulation portion being opposite said top surface and configured to couple with the tip of the blade ; a sheath suction side flank configured to overlap a suction side of the blade ; and a sheath pressure side flank opposite said suction side flank configured to overlap a pressure side of the blade ; characterized by : an insulator coupled between the encapsulation portion and the tip of the blade , said insulator being configured as a thermal resistor with a thickness adjustable responsive to a predetermined thermal resistance; a tip cap coupled to said metallic sheath and coupled to the tip of the blade and to an aft portion of the blade ; and a joint formed between said metallic sheath and said tip cap . a metallic sheath having a body comprising: a leading edge portion configured to cover a leading edge of the blade ; an extension portion with an encapsulation portion , the extension portion having a top surface adjacent the leading edge portion and being configured to cover a portion of a tip of the blade along an intermediate chord length , the encapsulation portion being opposite said top surface and configured to couple with the tip of the blade ; a sheath suction side flank configured to overlap a suction side of the blade ; and a sheath pressure side flank opposite said suction side flank configured to overlap a pressure side of the blade ; characterized by : a leading edge portion configured to cover a leading edge of the blade ; an extension portion with an encapsulation portion , the extension portion having a top surface adjacent the leading edge portion and being configured to cover a portion of a tip of the blade along an intermediate chord length , the encapsulation portion being opposite said top surface and configured to couple with the tip of the blade ; a sheath suction side flank configured to overlap a suction side of the blade ; and a sheath pressure side flank opposite said suction side flank configured to overlap a pressure side of the blade ; characterized by : an insulator coupled between the encapsulation portion and the tip of the blade , said insulator being configured as a thermal resistor with a thickness adjustable responsive to a predetermined thermal resistance; a tip cap coupled to said metallic sheath and coupled to the tip of the blade and to an aft portion of the blade ; and a joint formed between said metallic sheath and said tip cap .
Vehicle, in particular motor vehicle with electric or hybrid electric drive, with a device for carrying, receiving and unloading loads and goods below the passenger compartment, said device including a load-bearing rail system that is integrated in the vehicle underbody , a rear axle of the trailing arm type or twist-beam rear suspension type, whose holding point is located on the side of the vehicle underbody or on the lateral edge of the vehicle underbody , characterized in that the device includes a self-levelling suspension system, which moves the vehicle body to a height relative to the road surface defined by the system, and that the device further includes a foldable load compartment for carrying, receiving and unloading loads and goods, which is firmly attached to the vehicle underbody .
Device for administering a liquid drop by drop, in particular an ophthalmic liquid, comprising a packaging at least partially filled with the liquid and an outflow channel for connecting to the packaging and comprising a perforation member at one end, wherein the perforation member is received in a frame for mounting on the packaging , wherein the packaging is at least partially tubular and the frame can be mounted round the tubular part of the packaging , characterized in that the frame comprises a substantially U-shaped part with two arms which extend on either side of the tubular part of the packaging and a bridge piece connecting the arms and carrying the perforation member , wherein the perforation member is arranged to protrude through a side wall of the packaging when the frame is mounted on the packaging .
Method for monitoring an operating state of a pumping device connected to a process chamber in order to determine a state of defective operation of the pumping device , the pumping device comprising at least one rough-vacuum pump comprising: - a motor (M1) for driving the rough-vacuum pump , and - a variable speed drive configured to control the rotation speed of the motor (M1) and configured on the one hand to receive a first input parameter corresponding to a setpoint frequency (C) and a second input parameter corresponding to the motor current (i) drawn by the motor (M1) and on the other hand to deliver to the motor (M1) an output parameter corresponding to a control frequency (F) dependent on the first and second input parameters, characterized in that a state of defective operation is determined when, in steady-state operation (H), the difference between the first input parameter and the output parameter is equal to or exceeds 10% of the first input parameter for a predetermined time (T) greater than 3 seconds, in which state of defective operation an isolating valve arranged between the process chamber and the pumping device is closed and/or the arrival of the gases in the process chamber is shut off. - a motor (M1) for driving the rough-vacuum pump , and - a variable speed drive configured to control the rotation speed of the motor (M1) and configured on the one hand to receive a first input parameter corresponding to a setpoint frequency (C) and a second input parameter corresponding to the motor current (i) drawn by the motor (M1) and on the other hand to deliver to the motor (M1) an output parameter corresponding to a control frequency (F) dependent on the first and second input parameters,
An e-vaping cartridge , comprising: a housing body ; a first tube extending longitudinally within the housing body , the first tube at least partially defining a central passage within the first tube , the first tube further defining at least one first hole that provides fluid communication between the central passage and a first annulus reservoir , the first annulus reservoir defined between the housing body and the first tube ; one or more layers of absorbent material positioned within the first annulus reservoir and around at least a portion of the first tube ; a wick in communication with the central passage , distal ends of the wick traversing the at least one first hole of the first tube and being in communication with the first annulus reservoir ; and a heater configured to vaporize a pre-vapor formulation that is communicated by the wick from the first annulus reservoir , wherein the e-vaping cartridge further comprises a second tube extending longitudinally within the housing body and partially defining a second annulus reservoir between the housing body and the second tube , the second tube defining at least one second hole that provides fluid communication between the first annulus reservoir and the second annulus reservoir . a housing body ; a first tube extending longitudinally within the housing body , the first tube at least partially defining a central passage within the first tube , the first tube further defining at least one first hole that provides fluid communication between the central passage and a first annulus reservoir , the first annulus reservoir defined between the housing body and the first tube ; one or more layers of absorbent material positioned within the first annulus reservoir and around at least a portion of the first tube ; a wick in communication with the central passage , distal ends of the wick traversing the at least one first hole of the first tube and being in communication with the first annulus reservoir ; and a heater configured to vaporize a pre-vapor formulation that is communicated by the wick from the first annulus reservoir , wherein the e-vaping cartridge further comprises a second tube extending longitudinally within the housing body and partially defining a second annulus reservoir between the housing body and the second tube , the second tube defining at least one second hole that provides fluid communication between the first annulus reservoir and the second annulus reservoir .
The hydrogen sulfate salt of 5-(5-chloro-2-{[(3 S )-3-(morpholin-4-ylmethyl)-3,4-dihydroisoquinolin-2(1 H )-yl]carbonyl} phenyl)- N -(5-cyano-1,2-dimethyl-1 H -pyrrol-3-yl)- N- (4-hydroxyphenyl)-1,2-dimethyl-1 H -pyrrole-3-carboxamide (Compound A, H 2 SO 4 ).