mhurhangee/ep-ind-claims huggingface dataset:
A method for service data verification implemented at a service system, the method comprising: determining service data that is to be verified; obtaining, from stored blockchain data, blockchain copy data associated with the service data that is to be verified, wherein the blockchain copy data includes data information that is generated based on second fingerprint data of service data to be processed and that is stored in a blockchain, wherein the second fingerprint data is generated for key element data extracted from the service data to be processed by using a predetermined method, wherein the blockchain copy data includes fingerprint data stored in a blockchain copy data of a previous adjacent node; calculating, by using the predetermined method, first fingerprint data of the service data that is to be verified; obtaining the second fingerprint data from the blockchain copy data that is corresponding to the service data that is to be verified; determine, through comparison, whether the first fingerprint data is the same as the second fingerprint data; and determine that the service data that is to be verified is not modified if the first fingerprint data is the same as the second fingerprint data. determining service data that is to be verified; obtaining, from stored blockchain data, blockchain copy data associated with the service data that is to be verified, wherein the blockchain copy data includes data information that is generated based on second fingerprint data of service data to be processed and that is stored in a blockchain, wherein the second fingerprint data is generated for key element data extracted from the service data to be processed by using a predetermined method, wherein the blockchain copy data includes fingerprint data stored in a blockchain copy data of a previous adjacent node; calculating, by using the predetermined method, first fingerprint data of the service data that is to be verified; obtaining the second fingerprint data from the blockchain copy data that is corresponding to the service data that is to be verified; determine, through comparison, whether the first fingerprint data is the same as the second fingerprint data; and determine that the service data that is to be verified is not modified if the first fingerprint data is the same as the second fingerprint data.
An enclosure suitable for use in a telecommunications or data communications network, the enclosure being of generally cuboidal shape, including an upper frame assembly that extends across an upper region of the enclosure, a lower frame assembly that extends across a lower region of the enclosure, first, second, third and fourth upright frame members (3,4,5,6) connectible between the upper frame assembly and the lower frame assembly, and upright mounting angles (23,24,25,26) suitable for mounting equipment for use in a telecommunications or data communications network, the positions of the upright mounting angles (23,24,25,26) being able to be moved independently of the upright frame members (3,4,5,6), the enclosure being able to be assembled in a first configuration in which the first and second upright frame members (3,4) are disposed at the front of the enclosure at opposite sides thereof and the third and fourth upright frame members (5,6) are disposed at the rear of the enclosure at opposite sides thereof, characterised in that the first, second, third and fourth upright frame members (3,4,5,6) are connectible between the upper frame assembly and the lower frame assembly in a plurality of different positions in the regions of the sides of the enclosure to provide different configurations of the enclosure and the enclosure is also able to be assembled in a second configuration in which the first, second, third and fourth upright frame members (3,4,5,6) are disposed in regions spaced from the front and rear regions of the enclosure.
A method for controlling a timer, implemented in a user equipment, comprising: receiving a first message from a network device, wherein the first message is used to switch from a first bandwidth part to a second bandwidth part, wherein a target timer is running based on a unit time length of the first bandwidth part when receiving the first message; and characterized by performing bandwidth part switching from the first bandwidth part to the second bandwidth part in response to the first message; controlling (S102-a) the target timer to perform timing based on the unit time length of the first bandwidth part until the target timer is stopped or the target timer expires; after the target timer is stopped or expires, controlling the target timer to perform timing based on a unit time length of the second bandwidth part. receiving a first message from a network device, wherein the first message is used to switch from a first bandwidth part to a second bandwidth part, wherein a target timer is running based on a unit time length of the first bandwidth part when receiving the first message; and characterized by performing bandwidth part switching from the first bandwidth part to the second bandwidth part in response to the first message; controlling (S102-a) the target timer to perform timing based on the unit time length of the first bandwidth part until the target timer is stopped or the target timer expires; after the target timer is stopped or expires, controlling the target timer to perform timing based on a unit time length of the second bandwidth part.
A panel bending machine comprising a counter-blade and a blank holder shaped so as to clamp a sheet metal panel to be bent in working position (P1-P3), said pane bending machine further comprising a "C"-shaped blade holder which supports at least a first and a second bending blade at the terminals thereof, said machine comprising actuating means of the blade holder, said actuating means being structured to swivel said second blade in a first working position and in a second working position different from the first working position, characterized in that said actuating means of the blade holder are adapted to operate on the blade holder so that said second blade rotates about an axis passing through the free end thereof to go from the first working position to the second working position.
An enclosed variable frequency drive, comprising: a variable frequency drive having a 3D shape and upwardly directed air flow vents; an intake baffle disposed at a bottom portion of the variable frequency drive, wherein the intake baffle includes an internal duct to allow cooling air flow but to deter flame progression; and an enclosure configured to conform to the 3D shape of the variable frequency drive, wherein the enclosure is a fire shield (110, 115) having mating air flow vents to those of the variable frequency drive, wherein the fire shield includes side louvers configured to be directed to vent in an upward, or upside-down, direction away from the intake baffle. a variable frequency drive having a 3D shape and upwardly directed air flow vents; an intake baffle disposed at a bottom portion of the variable frequency drive, wherein the intake baffle includes an internal duct to allow cooling air flow but to deter flame progression; and an enclosure configured to conform to the 3D shape of the variable frequency drive, wherein the enclosure is a fire shield (110, 115) having mating air flow vents to those of the variable frequency drive, wherein the fire shield includes side louvers configured to be directed to vent in an upward, or upside-down, direction away from the intake baffle.
A screen module, comprising: an external screen, a first light blocking layer, a substrate, and a reflection layer that are disposed from outside to inside, wherein an imaging unit array is disposed on the substrate, the imaging unit array comprises a plurality of imaging units, and a photosensitive surface of the imaging unit is opposite to the reflection layer; a first aperture array is disposed on the first light blocking layer, the first aperture array comprises a plurality of first apertures, and the first aperture is used to allow light reflected by an object outside the external screen to the reflection layer to pass through; and the reflection layer is configured to reflect, to the imaging unit, the light passing through the first aperture; wherein a second light blocking layer is disposed between the substrate and the reflection layer, the second light blocking layer comprises a light transmission area array, and each light transmission area in the light transmission area array comprises a third aperture and a fourth aperture; the third aperture is aligned with the first aperture, and the third aperture is used to allow the light passing through the first aperture to pass through; and the fourth aperture is used to allow the light reflected by the reflection layer to the imaging unit to pass through. an external screen, a first light blocking layer, a substrate, and a reflection layer that are disposed from outside to inside, wherein an imaging unit array is disposed on the substrate, the imaging unit array comprises a plurality of imaging units, and a photosensitive surface of the imaging unit is opposite to the reflection layer; a first aperture array is disposed on the first light blocking layer, the first aperture array comprises a plurality of first apertures, and the first aperture is used to allow light reflected by an object outside the external screen to the reflection layer to pass through; and the reflection layer is configured to reflect, to the imaging unit, the light passing through the first aperture; wherein a second light blocking layer is disposed between the substrate and the reflection layer, the second light blocking layer comprises a light transmission area array, and each light transmission area in the light transmission area array comprises a third aperture and a fourth aperture; the third aperture is aligned with the first aperture, and the third aperture is used to allow the light passing through the first aperture to pass through; and the fourth aperture is used to allow the light reflected by the reflection layer to the imaging unit to pass through.
An electric machine comprising: a stator and a rotor core; a rotor shaft operably coupled to the rotor core, the rotor shaft comprising a hollow region configured to receive a coolant, the hollow region defined by an inner surface having a slope that increases from a first inner diameter at a first end to a second inner diameter at a second end; and an impeller comprising an annular body mounted on the rotor shaft, the rotor shaft fitting within an annular space defined by the annular body, the impeller comprising a plurality of impeller blades and a corresponding plurality of impeller channels transitioning from a radial orientation to an axial orientation, the plurality of impeller blades and the corresponding plurality of impeller channels configured to scoop or push the coolant through a plurality of coolant supply holes in the rotor shaft into the first end of the hollow region of the rotor shaft; wherein a force comprising a centrifugal force generated when rotating the rotor shaft at an operating rate of rotation causes the coolant to flow across the inner surface of the rotor shaft from the first end to the second end at a velocity depending at least in part on the slope of the inner surface of the rotor shaft. a stator and a rotor core; a rotor shaft operably coupled to the rotor core, the rotor shaft comprising a hollow region configured to receive a coolant, the hollow region defined by an inner surface having a slope that increases from a first inner diameter at a first end to a second inner diameter at a second end; and an impeller comprising an annular body mounted on the rotor shaft, the rotor shaft fitting within an annular space defined by the annular body, the impeller comprising a plurality of impeller blades and a corresponding plurality of impeller channels transitioning from a radial orientation to an axial orientation, the plurality of impeller blades and the corresponding plurality of impeller channels configured to scoop or push the coolant through a plurality of coolant supply holes in the rotor shaft into the first end of the hollow region of the rotor shaft; wherein a force comprising a centrifugal force generated when rotating the rotor shaft at an operating rate of rotation causes the coolant to flow across the inner surface of the rotor shaft from the first end to the second end at a velocity depending at least in part on the slope of the inner surface of the rotor shaft.
An alkoxylated polyamidoamine obtainable by a) reacting a polycarboxylic compound having a total number TN of carboxylic groups of 3 to 10 with a primary diamine of formula I H 2 N-Z-NH 2 wherein Z represents an organic group with 1 to 20 carbon atoms and wherein Z in formula I is an aliphatic hydrocarbon group in a ratio of 0.3 TN to TN mols of the diamine per 1 mol of the polycarboxylic compound and b) alkoxylating the product obtained in a) with at least 0.5 mol of alkyleneoxide per 1 mol of primary amino groups a) reacting a polycarboxylic compound having a total number TN of carboxylic groups of 3 to 10 with a primary diamine of formula I H 2 N-Z-NH 2 wherein Z represents an organic group with 1 to 20 carbon atoms and wherein Z in formula I is an aliphatic hydrocarbon group in a ratio of 0.3 TN to TN mols of the diamine per 1 mol of the polycarboxylic compound and with a primary diamine of formula I H 2 N-Z-NH 2 wherein Z represents an organic group with 1 to 20 carbon atoms and wherein Z in formula I is an aliphatic hydrocarbon group in a ratio of 0.3 TN to TN mols of the diamine per 1 mol of the polycarboxylic compound and b) alkoxylating the product obtained in a) with at least 0.5 mol of alkyleneoxide per 1 mol of primary amino groups
Housing of a battery pack for a motor vehicle, comprising an inner space designed to contain at least one module, consisting of a set of several electric cells, associated with a thermoregulating plate, the housing having at least one wall (53, 53') designed to rest against the thermoregulating plate when the module is present in the housing, this housing being characterised in that it comprises fastening means (23, 49, 60) for fastening a module against said wall (53, 53') and in that said wall (53, 53') comprises, on its inner face turned towards the thermoregulating plate, an element in relief (55, 90) inscribed in a volume having a convexity turned towards the inner space of the housing.
An automated machine vision method for determining if an object within a work field has one or more predetermined features, wherein the object is a threaded fastener, the automated machine vision method comprising: capturing image data of the work field from a camera system; following the capturing the image data, binary thresholding the image data based on a presumed feature of the one or more predetermined features, wherein the presumed feature is a color; responsive to the binary thresholding, identifying one or more groups of pixels as candidates for the presumed feature; following the identifying one or more groups of pixels, applying a Gabor filter to the one or more groups of pixels, wherein the Gabor filter comprises an aspect corresponding to a specific feature of the one or more predetermined features, wherein the specific feature is a presumed texture corresponding to a specific thread pitch; and based at least in part on the applying, determining if the object has the specific feature. capturing image data of the work field from a camera system; following the capturing the image data, binary thresholding the image data based on a presumed feature of the one or more predetermined features, wherein the presumed feature is a color; responsive to the binary thresholding, identifying one or more groups of pixels as candidates for the presumed feature; following the identifying one or more groups of pixels, applying a Gabor filter to the one or more groups of pixels, wherein the Gabor filter comprises an aspect corresponding to a specific feature of the one or more predetermined features, wherein the specific feature is a presumed texture corresponding to a specific thread pitch; and based at least in part on the applying, determining if the object has the specific feature.
A tire vulcanizer (1, 1A) in which a green tire is put into a metal mold capable of being separated into an upper metal mold and a lower metal mold and is then heated and pressurized so as to be finished into a shape of a cured tire, the tire vulcanizer (1,1A) comprising a slide back mechanism configured such that the upper metal mold separated and lifted from the lower metal mold installed to be fixed to a base can be moved by an operation of a movable carriage so as to reciprocate between a vulcanization position at which the upper metal mold is pressed toward the lower metal mold, and a waiting position at which the green tire can be carried in the lower metal mold and the cured tire can be carried out from the lower metal mold, characterized in that the upper metal mold is attached below, via a squeezing cylinder mechanism, to a horizontal beam integrated with a tie rod which is vertically moved by an operation of a lifting/lowering cylinder along a guide hole provided in the movable carriage, and wherein the squeezing cylinder mechanism comprises a pressure receiving plate, a squeezing cylinder which is fixed to an upper surface of the pressure receiving plate, and a suspension member connecting the pressure receiving plate and the horizontal beam, wherein the squeezing cylinder mechanism presses the upper metal mold downward, wherein the pressure receiving plate is fixed to an upper end section of the upper metal mold via a bolster plate, wherein a piston rod projects from an upper surface of the squeezing cylinder, and wherein the piston rod is in contact with the horizontal beam and pushes up a lower surface of the horizontal beam, at the time of pressurization in the fully closed state of the metal mold.
A method of pyrosequencing a polynucleotide molecule, said method comprising the steps of: providing a rotatable platform having at least one open well for containing at least one support surface, said open well being shaped or dimensioned such that a reagent deposited therein is centrifugally removable from said open well and off said platform by sufficient rotation of said platform; providing at least one said support surface in the form of a magnetic particle to each said open well, wherein said support surface is adapted to immobilise a polynucleotide molecule or has immobilised thereon a polynucleotide molecule; if there is no polynucleotide molecule already immobilized thereon, immobilizing a polynucleotide molecule on said magnetic particle; annealing an oligonucleotide primer to a single strand of said polynucleotide molecule; dispensing into each said open well from a point external of said platform a series of pyrosequencing reagents, wherein after one or more said dispensing steps said platform is rotated sufficiently such that any residual or unreacted said reagent is substantially centrifugally removed from each said open well and off said platform, wherein during rotation each said magnetic particle is magnetically held within each said open well; assaying for the presence of a pyrophosphate group in each said well, said assaying step comprising detecting a light signal in each said open well; and repeating said dispensing and assaying steps, thereby sequencing said polynucleotide molecule. providing a rotatable platform having at least one open well for containing at least one support surface, said open well being shaped or dimensioned such that a reagent deposited therein is centrifugally removable from said open well and off said platform by sufficient rotation of said platform; providing at least one said support surface in the form of a magnetic particle to each said open well, wherein said support surface is adapted to immobilise a polynucleotide molecule or has immobilised thereon a polynucleotide molecule; if there is no polynucleotide molecule already immobilized thereon, immobilizing a polynucleotide molecule on said magnetic particle; annealing an oligonucleotide primer to a single strand of said polynucleotide molecule; dispensing into each said open well from a point external of said platform a series of pyrosequencing reagents, wherein after one or more said dispensing steps said platform is rotated sufficiently such that any residual or unreacted said reagent is substantially centrifugally removed from each said open well and off said platform, wherein during rotation each said magnetic particle is magnetically held within each said open well; assaying for the presence of a pyrophosphate group in each said well, said assaying step comprising detecting a light signal in each said open well; and repeating said dispensing and assaying steps, thereby sequencing said polynucleotide molecule.
A method of monitoring a motion state, comprising: monitoring accelerations by an electronic device using an inertial sensor; identifying, by the electronic device, a current motion state based on the accelerations; determining that an application is on a subscription list including a plurality of separate applications that subscribe to a motion state identification service; and notifying the application of the current motion state when the motion state meets the criteria for the application. monitoring accelerations by an electronic device using an inertial sensor; identifying, by the electronic device, a current motion state based on the accelerations; determining that an application is on a subscription list including a plurality of separate applications that subscribe to a motion state identification service; and notifying the application of the current motion state when the motion state meets the criteria for the application.
A method of controlling illumination in a space, comprising: determining the orientation relative to the Earth's magnetic poles or about a nadir axis of a lighting fixture, wherein said orientation relative to the Earth's magnetic poles or about a nadir axis is determined via an orientation sensor on said lighting fixture; determining a geographic location of said lighting fixture; determining at least one climate-related parameter for said geographic location, the at least one climate-related parameter being short-term weather-based information; and adjusting at least one light output characteristic of said lighting fixture based on said orientation and said climate-related parameter, wherein the method further comprises proactively determining, based on said short-term weather-based information, likely daylight conditions in an exterior space relative to said space at a future time; and wherein said at least one light output characteristic of said lighting fixture is adjusted in correspondence with said likely daylight conditions prior to said future time (202/203). determining the orientation relative to the Earth's magnetic poles or about a nadir axis of a lighting fixture, wherein said orientation relative to the Earth's magnetic poles or about a nadir axis is determined via an orientation sensor on said lighting fixture; determining a geographic location of said lighting fixture; determining at least one climate-related parameter for said geographic location, the at least one climate-related parameter being short-term weather-based information; and adjusting at least one light output characteristic of said lighting fixture based on said orientation and said climate-related parameter, wherein the method further comprises proactively determining, based on said short-term weather-based information, likely daylight conditions in an exterior space relative to said space at a future time; and wherein said at least one light output characteristic of said lighting fixture is adjusted in correspondence with said likely daylight conditions prior to said future time (202/203).