mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: memory; at least one processor, a program of instructions, configured to, with the memory and the at least one processor, configure the apparatus to: receive at least one token from an authenticating authority, wherein the at least one token authenticates another party as a friend of a user of the apparatus; and communicate with a wireless communication device of another user possessing at least one token authenticating at least one party as a friend of the user of the wireless communication device; and analyze information received in the communication to determine whether the information indicates that a joint friend of a particular level of closeness exists between the user of the apparatus and the user of the wireless communication device, characterized in that the at least one token comprises information encrypted with a key associated with a level of closeness between the user and the another party, and the analyzing comprises performing private set intersection to determine if the another user has at least one of the at least one token, to thereby determine whether the particular level of closeness applies. memory; at least one processor, a program of instructions, configured to, with the memory and the at least one processor, configure the apparatus to: receive at least one token from an authenticating authority, wherein the at least one token authenticates another party as a friend of a user of the apparatus; and communicate with a wireless communication device of another user possessing at least one token authenticating at least one party as a friend of the user of the wireless communication device; and receive at least one token from an authenticating authority, wherein the at least one token authenticates another party as a friend of a user of the apparatus; and communicate with a wireless communication device of another user possessing at least one token authenticating at least one party as a friend of the user of the wireless communication device; and analyze information received in the communication to determine whether the information indicates that a joint friend of a particular level of closeness exists between the user of the apparatus and the user of the wireless communication device, the at least one token comprises information encrypted with a key associated with a level of closeness between the user and the another party, and the analyzing comprises performing private set intersection to determine if the another user has at least one of the at least one token, to thereby determine whether the particular level of closeness applies.
Device for adjusting the elevation of a part, the device comprising: - a body intended to be secured to a supporting means, the body comprising a cylindrical barrel provided with an internal thread; - a pin having an external thread over a portion of its length, and a first end for supporting the part; the pin and the body being joined to one another by means of their respective threads and the pin being able, when it is rotated, to move along a longitudinal axis in order to adjust the elevation of its first end, the device being characterized in that the body comprises a head provided with a lateral window and the pin comprises peripheral notches over a portion of its length that are arranged facing the lateral window of the body, and the adjusting device comprises a locking means which can be inserted into the lateral window of the body in order to engage with the notches of the pin and index its movement. - a body intended to be secured to a supporting means, the body comprising a cylindrical barrel provided with an internal thread; - a pin having an external thread over a portion of its length, and a first end for supporting the part;
An autonomous system for selectively displacing human driver control of a host vehicle, the system comprising: at least one processing device programmed to: receive, from an image capture device (120, 122, 124, 126), at least one image representative of an environment of the host vehicle; detect at least one obstacle in the environment of the host vehicle based on an analysis of the at least one image; monitor a driver input to at least one of a throttle control, a brake control, or a steering control associated with the host vehicle; determine whether the driver input would result in the host vehicle navigating within a proximity buffer relative to the at least one obstacle, wherein the proximity buffer includes a minimum distance to be maintained between the host vehicle and the at least one obstacle; allow the driver input to cause a corresponding change in one or more host vehicle motion control systems, if the at least one processing device determines that the driver input would not result in the host vehicle navigating within the proximity buffer relative to the at least one obstacle; and prevent the driver input from causing the corresponding change in the one or more host vehicle motion control systems, if the at least one processing device determines that the driver input would result in the host vehicle navigating within the proximity buffer relative to the at least one obstacle. receive, from an image capture device (120, 122, 124, 126), at least one image representative of an environment of the host vehicle; detect at least one obstacle in the environment of the host vehicle based on an analysis of the at least one image; monitor a driver input to at least one of a throttle control, a brake control, or a steering control associated with the host vehicle; determine whether the driver input would result in the host vehicle navigating within a proximity buffer relative to the at least one obstacle, wherein the proximity buffer includes a minimum distance to be maintained between the host vehicle and the at least one obstacle; allow the driver input to cause a corresponding change in one or more host vehicle motion control systems, if the at least one processing device determines that the driver input would not result in the host vehicle navigating within the proximity buffer relative to the at least one obstacle; and prevent the driver input from causing the corresponding change in the one or more host vehicle motion control systems, if the at least one processing device determines that the driver input would result in the host vehicle navigating within the proximity buffer relative to the at least one obstacle.
An alloy composition comprising, by weight: 20% to 23% of Cr; 8% to 10% of Mo; 3.15% to 4.15% of Nb + Ta; 0.25% to 1.5% of B; 0.35% to 1.75% of N; and a balance of Ni. 20% to 23% of Cr; 8% to 10% of Mo; 3.15% to 4.15% of Nb + Ta; 0.25% to 1.5% of B; 0.35% to 1.75% of N; and a balance of Ni.
A non-therapeutic method of reducing a population of microorganisms which are capable of reproduction, comprising: - providing an antimicrobial composition comprising: a. an amount of water; b. an amount of antimicrobially active agent which is 2-dimethylaminoethanol in an amount of between 5 percent and 95 percent by volume mixed with said amount of water by volume, said amount of antimicrobially active agent sufficient in the mixture by volume to allow said amount of water to evaporate from the mixture at a greater rate than said amount of antimicrobially active agent, and wherein the mixture provides greater than a 2-log 10 order reduction in a population of viable microorganisms over a duration of time of not greater than thirty minutes, - contacting said population of microorganisms with said antimicrobial composition, and - evaporating water from the combination of water and said antimicrobially active agent. - providing an antimicrobial composition comprising: a. an amount of water; b. an amount of antimicrobially active agent which is 2-dimethylaminoethanol in an amount of between 5 percent and 95 percent by volume mixed with said amount of water by volume, said amount of antimicrobially active agent sufficient in the mixture by volume to allow said amount of water to evaporate from the mixture at a greater rate than said amount of antimicrobially active agent, and wherein the mixture provides greater than a 2-log 10 order reduction in a population of viable microorganisms over a duration of time of not greater than thirty minutes, a. an amount of water; b. an amount of antimicrobially active agent which is 2-dimethylaminoethanol in an amount of between 5 percent and 95 percent by volume mixed with said amount of water by volume, said amount of antimicrobially active agent sufficient in the mixture by volume to allow said amount of water to evaporate from the mixture at a greater rate than said amount of antimicrobially active agent, and wherein the mixture provides greater than a 2-log 10 order reduction in a population of viable microorganisms over a duration of time of not greater than thirty minutes, - contacting said population of microorganisms with said antimicrobial composition, and - evaporating water from the combination of water and said antimicrobially active agent.
An ironless magnetic motor (21, 22), comprising: - a magnetic track generating a magnetic field (β) across a linear air gap having a X drive axis, a Y transversal axis and a Z levitation axis, said magnetic track having 180° spatial separation between adjacent magnets; and - a forcer including a coil disposed within the linear air gap, the forcer being positioned in an X-Z plane, wherein a first set of levitating turns of the coil parallel to the X drive axis and orthogonal to the Z levitation axis is internal to magnetic field (β), wherein a second set of levitating turns of the coil parallel to the X drive axis and orthogonal to the Z levitation axis is external to magnetic field (β), wherein an opposing set of drive turns of the coil orthogonal to the X drive axis and parallel to the Z levitation axis is substantially internal to magnetic field (β), wherein a commutation drive current (Ix) is applied to the coil to generate a drive force (Fx) parallel to the X drive axis and orthogonal to the Z levitation axis, and wherein a commutation levitating current (I Z) is superimposed on and phase shifted from the commutation drive current (I X) to generate a levitating force (F Z) orthogonal to the X drive axis and parallel to the Z levitation axis, wherein the phase shifting of commutation levitating current (I Z) from the commutation drive current (I X) is such that the levitating force (F Z) is at least substantially decoupled from the drive force (Fx). - a magnetic track generating a magnetic field (β) across a linear air gap having a X drive axis, a Y transversal axis and a Z levitation axis, said magnetic track having 180° spatial separation between adjacent magnets; and - a forcer including a coil disposed within the linear air gap, the forcer being positioned in an X-Z plane, wherein a first set of levitating turns of the coil parallel to the X drive axis and orthogonal to the Z levitation axis is internal to magnetic field (β), wherein a second set of levitating turns of the coil parallel to the X drive axis and orthogonal to the Z levitation axis is external to magnetic field (β), wherein an opposing set of drive turns of the coil orthogonal to the X drive axis and parallel to the Z levitation axis is substantially internal to magnetic field (β), wherein a commutation drive current (Ix) is applied to the coil to generate a drive force (Fx) parallel to the X drive axis and orthogonal to the Z levitation axis, and wherein a commutation levitating current (I Z) is superimposed on and phase shifted from the commutation drive current (I X) to generate a levitating force (F Z) orthogonal to the X drive axis and parallel to the Z levitation axis, wherein the phase shifting of commutation levitating current (I Z) from the commutation drive current (I X) is such that the levitating force (F Z) is at least substantially decoupled from the drive force (Fx).
An enclosure for enclosing a blender container that, in use, is positioned on a base of a food blender, the enclosure comprising a body portion, a cover pivotally attached to said body portion, said cover and said body portion together having a bottom edge profile when the cover is in a closed position, said bottom edge profile having a plurality of sides, a foot carried by said body portion, said foot having a like plurality of sides, each side of said foot being positioned adjacent to a side of said bottom edge profile, and a gasket in use positioned between the top surface of the base and said foot, wherein said gasket isolates the enclosure from the base to reduce the transfer of vibrations therebetween.
A head mounted display apparatus, the HMD apparatus comprising: a band; at least one sensor; and a processor configured to control the HMD apparatus to, based on a user's face approaching an inside surface of the HMD apparatus being sensed by the at least one sensor, rotate the band from a folded state to an unfolded state extending towards the back of the user's head, and to adjust a length of the band in the unfolded state such that the band in the unfolded state comes in contact with the user's head. a band; at least one sensor; and a processor configured to control the HMD apparatus to, based on a user's face approaching an inside surface of the HMD apparatus being sensed by the at least one sensor, rotate the band from a folded state to an unfolded state extending towards the back of the user's head, and to adjust a length of the band in the unfolded state such that the band in the unfolded state comes in contact with the user's head.
A highly nonlinear optical fiber, comprising: a central core region made substantially from silica doped with aluminum; a trench region surrounding said central core region; and a silica cladding surrounding said trench region, wherein a first refractive index difference (Δn+) of said central core region relative to said cladding is less than 26 x 10 -3, and wherein a second refractive index difference (Δn-) of said trench region relative to said cladding is less than -5 x 10 -3, characterized in that an aluminum doping level of said central core region is less than 14wt% Al. a central core region made substantially from silica doped with aluminum; a trench region surrounding said central core region; and a silica cladding surrounding said trench region, wherein a first refractive index difference (Δn+) of said central core region relative to said cladding is less than 26 x 10 -3, and wherein a second refractive index difference (Δn-) of said trench region relative to said cladding is less than -5 x 10 -3, characterized in that an aluminum doping level of said central core region is less than 14wt% Al.
A tool head for a surgical tool for knockout and/or insertion of prostheses, comprising: - a tool body (10, 11, 12) having at least two clamping jaws (14, 14a, 14b, 14c, 15, 15a, 15b) that are designed pliers-like for clamping a prosthetic part, the clamping jaws being pivotably mounted in relation to the tool body (10, 11, 12); characterized in that each clamping jaw is pivotably attached with a first end to the tool body by an attachment element, and at least one of the movable clamping jaws has at least one pressure area adjacent to the first end between the attachment elements, which is arranged so that exerting a pressure on the pressure area of the at least one clamping jaw causes a movement of the clamping jaws (14, 14a, 14b, 14c, 15, 15a, 15b, 41) toward one another to thereby clamp the prosthetic part between holding areas of the clamping jaws, wherein the movement of the clamping jaws is substantially perpendicular to the direction of exerting pressure. - a tool body (10, 11, 12) having at least two clamping jaws (14, 14a, 14b, 14c, 15, 15a, 15b) that are designed pliers-like for clamping a prosthetic part, the clamping jaws being pivotably mounted in relation to the tool body (10, 11, 12);
An optical fiber comprising: a core having a first region and a second region, and a cladding that encloses the core, the optical fiber being configured to propagate a light beam at a predetermined wavelength at least in an LP01 mode and an LP02 mode, wherein said first region having an intensity of the light beam in the LP02 mode greater than an intensity of the light beam in the LP01 mode and being located on a circumferential side of the second region, said second region having the intensity of the light beam in the LP01 mode greater than the intensity of the light beam in the LP02 mode, wherein at least a part of a Young's modulus in the first region is smaller than a Young's modulus in the second region. a core having a first region and a second region, and a cladding that encloses the core, the optical fiber being configured to propagate a light beam at a predetermined wavelength at least in an LP01 mode and an LP02 mode, wherein said first region having an intensity of the light beam in the LP02 mode greater than an intensity of the light beam in the LP01 mode and being located on a circumferential side of the second region, said second region having the intensity of the light beam in the LP01 mode greater than the intensity of the light beam in the LP02 mode, wherein at least a part of a Young's modulus in the first region is smaller than a Young's modulus in the second region.
An apparatus of a user equipment, LTE (110, 600), comprising circuitry adapted to: configure a scheduling request, SR, transmission based on a physical uplink control channel, PUCCH; combine the scheduling request with a buffer status report group indicator, BSRGI, wherein a buffer status report, BSR, is divided into two or more groups and the BSRGI is used to indicate to which BSR group the BSR belongs, wherein a value of the BSRGI is based on a BSR group threshold indicating a maximum buffer size for the value of the BSRGI, wherein the BSR group threshold is based on a power control factor of the LTE or uplink Channel State Information, CSI, for the UE, wherein the BSRGI is added to an end of the CSI; transmit the combined SR and BSRGI in a single subframe to a network entity; receive uplink resource scheduling from the network entity in reply to the combined SR and BSRGI; and transmit uplink data to the network entity according to the uplink resource scheduling, wherein the apparatus comprises radio-frequency circuitry (606, 1006) adapted to transmit the combined SR and BSRGI message with a periodic CSI. configure a scheduling request, SR, transmission based on a physical uplink control channel, PUCCH; combine the scheduling request with a buffer status report group indicator, BSRGI, wherein a buffer status report, BSR, is divided into two or more groups and the BSRGI is used to indicate to which BSR group the BSR belongs, wherein a value of the BSRGI is based on a BSR group threshold indicating a maximum buffer size for the value of the BSRGI, wherein the BSR group threshold is based on a power control factor of the LTE or uplink Channel State Information, CSI, for the UE, wherein the BSRGI is added to an end of the CSI; transmit the combined SR and BSRGI in a single subframe to a network entity; receive uplink resource scheduling from the network entity in reply to the combined SR and BSRGI; and transmit uplink data to the network entity according to the uplink resource scheduling, wherein the apparatus comprises radio-frequency circuitry (606, 1006) adapted to transmit the combined SR and BSRGI message with a periodic CSI.
Method for fabricating an electrode (1;2) for a supercapacitor, the method includes the following process steps: • in a surface of a metal film substrate, etching microstructures with a predetermined roughness, • depositing in said microstructures a metal or metal compound layer, • converting said metal or compounds layer into metal nanoparticles, constituting a catalyst, • growing cross linked carbon nanotubes in said microstructures at said metal nanoparticle acting as catalysts. • in a surface of a metal film substrate, etching microstructures with a predetermined roughness, • depositing in said microstructures a metal or metal compound layer, • converting said metal or compounds layer into metal nanoparticles, constituting a catalyst, • growing cross linked carbon nanotubes in said microstructures at said metal nanoparticle acting as catalysts.
A method for monitoring sound within an environment using a lighting network (300, 400) comprising a processor (26, 220), a plurality of environmental sensors, and a plurality of lighting units each comprising an integrated sound sensor, the method comprising the steps of: obtaining, by at least one of the integrated sound sensors, real-time sound data from within the environment; obtaining, by at least one of the plurality of environmental sensors, real-time environmental data from within the environment; combining, using the processor, the real-time sound data, the real-time environmental data, and topographical information about the environment to create a propagation map of the sound data; and localizing, from the propagation map of the sound data, a source of the sound data. obtaining, by at least one of the integrated sound sensors, real-time sound data from within the environment; obtaining, by at least one of the plurality of environmental sensors, real-time environmental data from within the environment; combining, using the processor, the real-time sound data, the real-time environmental data, and topographical information about the environment to create a propagation map of the sound data; and localizing, from the propagation map of the sound data, a source of the sound data.
A method for increasing the medium to high speed stability and for controlling the transient yaw response of a road vehicle, as a result of steering input, said vehicle being equipped with a front axle, a rear axle, a controllable differential and a control unit arranged for locking and unlocking said differential, said method comprising: - selectively locking or unlocking said differential depending on the operation of said vehicle; characterized in that the method further comprises: - measuring at least the longitudinal vehicle speed (v); - comparing the measured vehicle speed (v) with a predetermined first reference speed (v H); and - locking said differential if said measured vehicle speed (v) exceeds said first reference speed (v H), regardless of the amount of steering input applied; and - keeping the differential locked regardless of the amount of steering input applied. - selectively locking or unlocking said differential depending on the operation of said vehicle; - measuring at least the longitudinal vehicle speed (v); - comparing the measured vehicle speed (v) with a predetermined first reference speed (v H); and - locking said differential if said measured vehicle speed (v) exceeds said first reference speed (v H), regardless of the amount of steering input applied; and - keeping the differential locked regardless of the amount of steering input applied.
A magnetic lock including a cylinder and a flat key; the cylinder including a stator, a rotor able to rotate in the bore of the stator and having, in its median plane, a keyway able to receive the flat key, and a set of housings aligned in said median plane and each containing a spring, a stator pin and a rotor pin, the pins being stressed by the spring toward the keyway and ensuring, in the absence of the key, blocking of the rotor relative to the stator; the flat key including a key shank, the profile of which is able to cooperate with the rotor pins to allow the rotation of the rotor, and a key ring bearing a stop bearing on the rotor, the cylinder including, at the entrance of the keyway, a housing in which a blocker is arranged made from a ferromagnetic material ensuring, in the idle position when no key is present, blocking of the rotor relative to the stator, and the key ring bearing, in the immediate vicinity of said stop, a magnet able, when the key is inserted into the keyway, to attract the blocker toward a released position in which it allows the rotor to rotate in the stator, characterized in that, in the assembly of the blocker and the magnet, one of the two has a protuberance with a defined shape, and the other has a cavity with a shape complementary to that of the protuberance to convey the blocker to its released position.