mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: establishing a telecommunication link between a device and a service provider system via a telecommunication network; receiving, from the device at the service provider system, a communication comprising communication data, including a device public key, via the telecommunication network, the device public key predating the establishment of the telecommunication link; verifying, at the service provider system, based on verification data from at least one other device, obtained using the communication data included in the communication received from the device, that the device stores a device private key in a secure storage area of the device, the device private key corresponding to the device public key, the device public key and the device private key being a cryptographic key pair; and authorizing, by the service provider system, sign-up of the device for service enrollment in response to verifying, based on the verification data from the at least one other device, obtained using the communication data included in the communication received from the device, that the device stores the device private key in the secure storage area of the device. establishing a telecommunication link between a device and a service provider system via a telecommunication network; receiving, from the device at the service provider system, a communication comprising communication data, including a device public key, via the telecommunication network, the device public key predating the establishment of the telecommunication link; verifying, at the service provider system, based on verification data from at least one other device, obtained using the communication data included in the communication received from the device, that the device stores a device private key in a secure storage area of the device, the device private key corresponding to the device public key, the device public key and the device private key being a cryptographic key pair; and authorizing, by the service provider system, sign-up of the device for service enrollment in response to verifying, based on the verification data from the at least one other device, obtained using the communication data included in the communication received from the device, that the device stores the device private key in the secure storage area of the device.
A SIMD computing system, including: at least one device (102, 106) comprising at least one instruction memory adapted to store instructions; a number, at least one, of high-precision execution units adapted to execute floating point arithmetic with a word length of 32 bits or more; an array of a plurality of low precision high dynamic range (LPHDR) execution units (104, 202, 204, 400), wherein each LPHDR execution unit is adapted to execute the operations of addition, multiplication, subtraction and division on input signals to produce an output signal; and wherein the device (102, 106) also comprises circuitry adapted to retrieve and decode instructions received from the at least one instruction memory and to send control signals to all LPHDR execution units to cause the LPHDR execution units to operate in parallel according to the instructions; wherein the input signals are represented in a logarithmic number system word format comprising one NAN bit, one bit for the sign of the value, a five bit integer part, a six bit fraction part and, to permit the logarithms to be negative, a sign bit for the logarithm, which is represented in two's complement form; wherein a number of LPHDR execution units in the computing system exceeds, by at least one thousand more than five times, the number of high-precision execution units. at least one device (102, 106) comprising at least one instruction memory adapted to store instructions; a number, at least one, of high-precision execution units adapted to execute floating point arithmetic with a word length of 32 bits or more; an array of a plurality of low precision high dynamic range (LPHDR) execution units (104, 202, 204, 400), wherein each LPHDR execution unit is adapted to execute the operations of addition, multiplication, subtraction and division on input signals to produce an output signal; and wherein the device (102, 106) also comprises circuitry adapted to retrieve and decode instructions received from the at least one instruction memory and to send control signals to all LPHDR execution units to cause the LPHDR execution units to operate in parallel according to the instructions; wherein the input signals are represented in a logarithmic number system word format comprising one NAN bit, one bit for the sign of the value, a five bit integer part, a six bit fraction part and, to permit the logarithms to be negative, a sign bit for the logarithm, which is represented in two's complement form; wherein a number of LPHDR execution units in the computing system exceeds, by at least one thousand more than five times, the number of high-precision execution units.
A glass panel unit, comprising: a first panel including at least a first glass plate; a second panel including at least a second glass plate, the second panel being arranged to face the first panel with a predetermined interval left with respect to the first panel; a seal arranged between the first panel and the second panel to hermetically bond the first panel and the second panel together; an internal space configured to form a reduced-pressure space by being hermetically enclosed by the first panel, the second panel, and the seal; and multiple pillars made of resin, the multiple pillars being arranged in the internal space at individual intersections of a square or rectangular lattice of constant lattice intervals, including a predetermined pitch, so as to be in contact with the first panel and the second panel, wherein the multiple pillars are arranged so as to satisfy a formula below. h − 0.232 ⋅ P 0 ⋅ p 2 / Eg ⋅ t 3 / 12 ⋅ 1 − ν 2 > 0, where p (m) denotes the predetermined pitch, h (m) denotes the predetermined interval between the first panel and the second panel, P 0 denotes the load loading compression fracture per one pillar of the multiple pillars, Eg (Pa) denotes the Young's modulus of each of the first panel and the second panel, t (m) denotes the thickness of each of the first panel and the second panel, and v denotes the Poisson's ratio of each of the first panel and the second panel. a first panel including at least a first glass plate; a second panel including at least a second glass plate, the second panel being arranged to face the first panel with a predetermined interval left with respect to the first panel; a seal arranged between the first panel and the second panel to hermetically bond the first panel and the second panel together; an internal space configured to form a reduced-pressure space by being hermetically enclosed by the first panel, the second panel, and the seal; and multiple pillars made of resin, the multiple pillars being arranged in the internal space at individual intersections of a square or rectangular lattice of constant lattice intervals, including a predetermined pitch, so as to be in contact with the first panel and the second panel, wherein the multiple pillars are arranged so as to satisfy a formula below. h − 0.232 ⋅ P 0 ⋅ p 2 / Eg ⋅ t 3 / 12 ⋅ 1 − ν 2 > 0, where p (m) denotes the predetermined pitch, h (m) denotes the predetermined interval between the first panel and the second panel, P 0 denotes the load loading compression fracture per one pillar of the multiple pillars, Eg (Pa) denotes the Young's modulus of each of the first panel and the second panel, t (m) denotes the thickness of each of the first panel and the second panel, and v denotes the Poisson's ratio of each of the first panel and the second panel.
A coaptation assist implant for treating mal-coaptation of a heart valve in a heart of a patient, the heart valve having an annulus and first and second leaflets, the annulus defining a valve axis extending along a blood flow path, the first and second leaflets having a coaptation zone defining a curve extending across the blood flow path, the coaptation assist implant comprising: a coaptation assist body having an axis and first and second opposed major coaptation surfaces, each coaptation surface extending laterally between a first lateral edge and a second lateral edge of the coaptation assist body, the coaptation assist body supportable within the heart so that the axis of the coaptation assist body extends along the valve axis of the heart valve with the first and second lateral edges of the coaptation assist body extend along the curve of the coaptation zone of the heart valve, wherein the coaptation assist body of the coaptation assist implant is sufficiently laterally conformable that engagement between the coaptation assist implant and the heart laterally bends the coaptation assist body between the first and second lateral edges toward the curve defined by the coaptation zone of the heart valve, a helical body having a helical axis, so that advancing of the helical body into the tissue of the heart can be performed by rotating the helical body about the helical axis so as to screw the helical body into a tissue of the heart adjacent the annulus. a coaptation assist body having an axis and first and second opposed major coaptation surfaces, each coaptation surface extending laterally between a first lateral edge and a second lateral edge of the coaptation assist body, the coaptation assist body supportable within the heart so that the axis of the coaptation assist body extends along the valve axis of the heart valve with the first and second lateral edges of the coaptation assist body extend along the curve of the coaptation zone of the heart valve, wherein the coaptation assist body of the coaptation assist implant is sufficiently laterally conformable that engagement between the coaptation assist implant and the heart laterally bends the coaptation assist body between the first and second lateral edges toward the curve defined by the coaptation zone of the heart valve, a helical body having a helical axis, so that advancing of the helical body into the tissue of the heart can be performed by rotating the helical body about the helical axis so as to screw the helical body into a tissue of the heart adjacent the annulus.
Plug connector, in particular for media-carrying lines, for fastening in a mating plug, in particular in an injector body of a fuel injector, comprising a plug body, which has at least one latching element, and a securing body which is held in a movable manner on the plug body and serves to secure the at least one latching element in the mating plug in a locking position, wherein at least one blocking element is arranged on the plug body and is coupled to the at least one latching element and blocks the securing body in its unlocking position with respect to a relative movement in the locking direction in relation to the plug body until the at least one latching element reaches a latching contour, which is formed in the mating plug, when the plug body is plugged into the mating plug, wherein the at least one blocking element releases the securing body in the locking direction in response to the latching element latching into the latching contour, characterized in that a blocking element section bears in an articulated manner against the free end of a clip limb of the securing body, whereas an end section (29, 38) of the blocking element, which end section is provided with a stop face, pivots away from the plug body with a radially outward deflection movement.
System for monitoring of movements of a stationary structure comprising: - at least one inertial measurement device mounted to the structure for determining of rotation rates and acceleration values in a earth fixed reference system, - a central unit for determining a monitoring value on the basis of the rotation rates and acceleration values by means of an inertial navigation algorithm, and - an output unit for outputting of the monitoring value, wherein the central unit is configured to determine and/or correct a measurement error of the inertial measurement device on the basis of a boundary condition predetermined by the structure in order to support the navigation algorithm, and - the central unit is configured to determine the boundary conditions on the basis of at least one information of a group comprising + a substantially stationary position of the structure, + a constraint of a degree of freedom of a movement of at least a part of the structure, + an inclination angle of at least a part of the structure, + a mean value of a movement of at least a part of the structure and/or of the inertial measurement device. - at least one inertial measurement device mounted to the structure for determining of rotation rates and acceleration values in a earth fixed reference system, - a central unit for determining a monitoring value on the basis of the rotation rates and acceleration values by means of an inertial navigation algorithm, and - an output unit for outputting of the monitoring value, wherein - the central unit is configured to determine the boundary conditions on the basis of at least one information of a group comprising + a substantially stationary position of the structure, + a constraint of a degree of freedom of a movement of at least a part of the structure, + an inclination angle of at least a part of the structure, + a mean value of a movement of at least a part of the structure and/or of the inertial measurement device. + a substantially stationary position of the structure, + a constraint of a degree of freedom of a movement of at least a part of the structure, + an inclination angle of at least a part of the structure, + a mean value of a movement of at least a part of the structure and/or of the inertial measurement device.
A method of producing an electrode support for a spark plug, comprising: providing a central spark plug electrode comprising a center portion and a plurality of side portions, the central electrode being constructed from a metal based material that has a coefficient of thermal expansion that ranges from between 4 x 10 -6 K -1 to 12 x 10 -6 K -1; providing at least one electrode chip constructed from a material that has substantially the same coefficient of thermal expansion as the material of the central spark plug electrode; and brazing the at least one electrode chip to the central spark plug electrode. providing a central spark plug electrode comprising a center portion and a plurality of side portions, the central electrode being constructed from a metal based material that has a coefficient of thermal expansion that ranges from between 4 x 10 -6 K -1 to 12 x 10 -6 K -1; providing at least one electrode chip constructed from a material that has substantially the same coefficient of thermal expansion as the material of the central spark plug electrode; and brazing the at least one electrode chip to the central spark plug electrode.
A method for controlling a vacuum generator in a vacuum system for transportation of objects, which vacuum system comprises a vacuum generator driven by a compressed air flow via a first on/off valve, wherein the vacuum generator is arranged to be brought in flow connection with the vacuum gripper means comprised in the vacuum system, in order to supply vacuum to the vacuum gripper means in result of the compressed air flow, wherein the vacuum system comprises a second valve, which is arranged to supply compressed air into the vacuum system; one single centralized pressure sensor used for monitoring a system pressure inside the vacuum system and for adaptive blow-off; and a vacuum system controller, wherein, if the on/off valve is not flowing air to the vacuum generator, the vacuum system controller indicates a state of no vacuum generation, and the second valve is activated, typically held opened, allowing an amount of compressed air to flow into the vacuum-system for blow-off, using vacuum system properties being characterized with respect to volume and flow-restriction in relation to the blow-off capacity of the blow-off function and for every release cycle wherein blow-off is terminated and excessive air injected into the system is released through the vacuum gripper means, characterized in that the method further comprises analyzing pressure propagation following blow-off by means of a set of data provided by the single centralized pressure sensor to the controller, calculating a duration of when the vacuum system is being fully pressure-equalized in parts of the vacuum gripper means by using the pressure propagation and a compensation factor (k), which is based on the pressure propagation from blow-off termination to pressure equilibrium of the previous release circle, analyzing the pressure propagation from blow-off termination to pressure equilibrium resulting in a compensation factor (k), which is stored and used for the next release cycle for calculating a duration of when the vacuum system is being fully pressure-equalized in parts of the vacuum gripper means.
A method for random access, comprising: performing, by a terminal device, random access based on required first network slice information, characterized by comprising: performing, by the terminal device, cell reselection based on the first network slice information to obtain a first cell in case that reselection indication information is received, wherein the first cell is a current camping cell supporting the first network slice information or a neighboring cell supporting the first network slice information; and wherein the reselection indication information is used to instruct the terminal device to perform the cell reselection, and comprises the first network slice information; and initiating, by the terminal device, random access to the first cell based on an access resource of the first cell corresponding to the first network slice information. performing, by the terminal device, cell reselection based on the first network slice information to obtain a first cell in case that reselection indication information is received, wherein the first cell is a current camping cell supporting the first network slice information or a neighboring cell supporting the first network slice information; and wherein the reselection indication information is used to instruct the terminal device to perform the cell reselection, and comprises the first network slice information; and wherein the first cell is a current camping cell supporting the first network slice information or a neighboring cell supporting the first network slice information; and wherein the reselection indication information is used to instruct the terminal device to perform the cell reselection, and comprises the first network slice information; and initiating, by the terminal device, random access to the first cell based on an access resource of the first cell corresponding to the first network slice information.
A method for reducing hair frizz comprising the steps of: a: applying to the hair a conditioner composition comprising: from 0.2% to 20% of a moisture control material or mixture of moisture control materials, preferably from 0.5% to 8%, more preferably from 0.5% to 5%, by total weight of the conditioner composition, wherein the moisture control material comprises salicylic acid in combination with 2,4-dihydroxybenzoic acid, wherein the total amount of moisture control material or mixture of moisture control materials ranges from 0.2% to 20% by total weight of the conditioner composition, and b: rinsing off the composition. a: applying to the hair a conditioner composition comprising: from 0.2% to 20% of a moisture control material or mixture of moisture control materials, preferably from 0.5% to 8%, more preferably from 0.5% to 5%, by total weight of the conditioner composition, wherein the moisture control material comprises salicylic acid in combination with 2,4-dihydroxybenzoic acid, wherein the total amount of moisture control material or mixture of moisture control materials ranges from 0.2% to 20% by total weight of the conditioner composition, and b: rinsing off the composition.
Apparatus for supplying build material to an image plane in a solid imaging device, said apparatus comprising a cartridge (200, 200') containing a source (246, 290) of build material, characterized by a reciprocating build material transport surface in said cartridge (200, 200') and alternately extendable and retractable therefrom, said transport surface in coating communication with said source for receiving a layer of build material thereon and conveying the build material layer-by-layer to an image plane exterior of said cartridge (200, 200'); and an alternately sealed opening in said cartridge through which said transport surface alternately extends and retracts.
A method for configuring a gas detector device which has moved from a first location zone to a second location zone, the method controlled by a central station, and comprising the steps of: determining that the gas detector device is in the second location zone, wherein the gas detector device is configured to hold a plurality of gas sensors at the same time; deactivating a first sensor of the plurality of gas sensors in the gas detector device which is required to detect a first gas in the first location zone; activating a second sensor of the plurality of gas sensors in the gas detector device which is required to detect a second gas in the second location zone; and detecting the second gas, by the second sensor of the plurality of gas sensors in the gas detector device, in the second location zone. determining that the gas detector device is in the second location zone, wherein the gas detector device is configured to hold a plurality of gas sensors at the same time; deactivating a first sensor of the plurality of gas sensors in the gas detector device which is required to detect a first gas in the first location zone; activating a second sensor of the plurality of gas sensors in the gas detector device which is required to detect a second gas in the second location zone; and detecting the second gas, by the second sensor of the plurality of gas sensors in the gas detector device, in the second location zone.