mhurhangee/ep-ind-claims huggingface dataset:
A computing system implemented method for providing access control and data entity encryption for a data management system, the method comprising: managing, with a resource management module of the computing system, a storage container; hosting, with the resource management module, the data management system including a plurality of data entities representing data on the storage container; accessing, with an access control and encryption module of the computing system, the data management system; generating, with the access control and encryption module, a plurality of application containers each associated with a respective user and including a list of data entities of the data management system authorized for the respective user; encrypting, with the access control and encryption module, each of the data entities of the data management system with a respective data entity encryption key; receiving, with the access control and encryption module, a request from a user to access a selected data entity in the data management system; denying, with the access control and encryption module, the request if the selected data entity is not listed in the application container associated with the user; decrypting, with the access control and encryption module, the selected data entity if the selected data entity is listed in the application container associated with the user; and outputting, with the access control and encryption module, the selected data entity to the user after decrypting the selected data entity. managing, with a resource management module of the computing system, a storage container; hosting, with the resource management module, the data management system including a plurality of data entities representing data on the storage container; accessing, with an access control and encryption module of the computing system, the data management system; generating, with the access control and encryption module, a plurality of application containers each associated with a respective user and including a list of data entities of the data management system authorized for the respective user; encrypting, with the access control and encryption module, each of the data entities of the data management system with a respective data entity encryption key; receiving, with the access control and encryption module, a request from a user to access a selected data entity in the data management system; denying, with the access control and encryption module, the request if the selected data entity is not listed in the application container associated with the user; decrypting, with the access control and encryption module, the selected data entity if the selected data entity is listed in the application container associated with the user; and outputting, with the access control and encryption module, the selected data entity to the user after decrypting the selected data entity.
A mangiferin aglycone crystal form I, characterized in that, the characteristic peaks of X-ray powder diffraction spectra represented by 2θ angle using Cu-Kα radiation with λ=1.5405A are as follows: 2θ I/I 0 % 2θ I/I 0 % 7.32 58 19.18 11 7.80 24 25.56 16 9.96 19 26.42 22 12.46 100 27.58 13 13.06 30 28.58 19 15.72 16
An e-vaping device (60, 500), comprising: a mouth-end insert (20, 550); a reservoir (14, 570) connectable to the mouth-end insert (20, 550) and configured to store pre-vapor formulation, the reservoir (14, 570) including a hollow portion along a longitudinal axis of the e-vaping device (60, 500); a heater (19, 540) located between the reservoir (14, 570) and the mouth-end insert (20, 550); a funneling portion configured to direct an amount of pre-vapor formulation onto the heater (19, 540), wherein the funneling portion extends away from a surface of the reservoir (14, 570) in a longitudinal direction of the e-vaping device (60, 500); a plurality of orifices distributed along an interior surface of the reservoir (14, 570); and a power portion (72, 510) connectable to the reservoir (14, 570). a mouth-end insert (20, 550); a reservoir (14, 570) connectable to the mouth-end insert (20, 550) and configured to store pre-vapor formulation, the reservoir (14, 570) including a hollow portion along a longitudinal axis of the e-vaping device (60, 500); a heater (19, 540) located between the reservoir (14, 570) and the mouth-end insert (20, 550); a funneling portion configured to direct an amount of pre-vapor formulation onto the heater (19, 540), wherein the funneling portion extends away from a surface of the reservoir (14, 570) in a longitudinal direction of the e-vaping device (60, 500); a plurality of orifices distributed along an interior surface of the reservoir (14, 570); and a power portion (72, 510) connectable to the reservoir (14, 570).
A solar cell apparatus comprising: • a substrate; • an n-type transparent conductive oxide layer being zinc oxide deposited over said substrate; • a p-i-n structure, deposited on the n-type transparent conductive oxide layer, including ∘ a p-type layer ∘ an i-type layer ∘ said n-type layer • a metal back layer deposited over said n-type layer of said p-i-n structure; wherein • said p-type layer comprises a p-type dopants graded multi-layers structure having a dopants concentration profile that varies as a function of thickness of said p-type dopants graded multi-layers structure, wherein • said p-type dopants graded multi-layers structure comprises boron as a doping element, • said p-type dopants graded multi-layers structure comprises: ∘ a first nanocrystalline or microcrystalline p-type layer, ∘ a second amorphous p-type layer, ∘ a third amorphous p-type layer, ∘ a fourth amorphous p-type layer, ∘ said second, third and fourth amorphous p-type layers (3b, 3c, 3d) having different dopant concentrations and the boron dopant concentration varies from the highest value in the first nanocrystalline or microcrystalline p-type layer to the lowest value in the fourth p-type amorphous layer denoting a tapering boron concentration profile. • a substrate; • an n-type transparent conductive oxide layer being zinc oxide deposited over said substrate; • a p-i-n structure, deposited on the n-type transparent conductive oxide layer, including ∘ a p-type layer ∘ an i-type layer ∘ said n-type layer ∘ a p-type layer ∘ an i-type layer ∘ said n-type layer • a metal back layer deposited over said n-type layer of said p-i-n structure; wherein • said p-type layer comprises a p-type dopants graded multi-layers structure having a dopants concentration profile that varies as a function of thickness of said p-type dopants graded multi-layers structure, wherein • said p-type dopants graded multi-layers structure comprises boron as a doping element, • said p-type dopants graded multi-layers structure comprises: ∘ a first nanocrystalline or microcrystalline p-type layer, ∘ a second amorphous p-type layer, ∘ a third amorphous p-type layer, ∘ a fourth amorphous p-type layer, ∘ said second, third and fourth amorphous p-type layers (3b, 3c, 3d) having different dopant concentrations and the boron dopant concentration varies from the highest value in the first nanocrystalline or microcrystalline p-type layer to the lowest value in the fourth p-type amorphous layer denoting a tapering boron concentration profile. ∘ a first nanocrystalline or microcrystalline p-type layer, ∘ a second amorphous p-type layer, ∘ a third amorphous p-type layer, ∘ a fourth amorphous p-type layer, ∘ said second, third and fourth amorphous p-type layers (3b, 3c, 3d) having different dopant concentrations and the boron dopant concentration varies from the highest value in the first nanocrystalline or microcrystalline p-type layer to the lowest value in the fourth p-type amorphous layer denoting a tapering boron concentration profile.
Method for electrical characterisation of a photovoltaic sample comprising at least one stack of layers (112, 114, 116, 118, 126) including an absorber material layer and measuring electrodes of identical shape and size and disposed on a first face of the photovoltaic sample and forming N pairs of adjacent measuring electrodes (108.1 - 108.4) having different inter-electrode distances d 1 - d N from one another, where N is an integer greater than or equal to 3, the measuring electrodes of the same pair of adjacent measuring electrodes (108.1 - 108.4) being parallel to one another, characterised in that it comprises at least: a) defining or calculating a target sheet resistance value R sh target of the absorber material layer; b) for each pair of pairs of adjacent measuring electrodes (108.1 - 108.4), of inter-electrode distances d i and d i+1, where i is an integer between 1 and N-1 and such that d i+1 > d i, determining a value I i,i+1 of a light intensity, for a given spectrum illuminating the first face of the photovoltaic sample or a second face, opposite the first face, of the photovoltaic sample, such that a sheet resistance value R sh i,i+1 of the absorber material layer, determined by linear interpolation between electrical resistance values R pair I i, i + 1 d i and R pair I i, i + 1 d i + 1 of said pair of pairs of adjacent measuring electrodes is as close as possible to the target value R sh target; c) determining a sheet resistance value R Sh of the absorber material layer and a contact resistance value R c of one of the measuring electrodes with the absorber material layer, by linear interpolation between at least three of the measured resistance values R pair I i, i + 1 d i and/or R pair I i, i + 1 d i + 1 for the different values I i,i+1 determined in step b). a) defining or calculating a target sheet resistance value R sh target of the absorber material layer; b) for each pair of pairs of adjacent measuring electrodes (108.1 - 108.4), of inter-electrode distances d i and d i+1, where i is an integer between 1 and N-1 and such that d i+1 > d i, determining a value I i,i+1 of a light intensity, for a given spectrum illuminating the first face of the photovoltaic sample or a second face, opposite the first face, of the photovoltaic sample, such that a sheet resistance value R sh i,i+1 of the absorber material layer, determined by linear interpolation between electrical resistance values R pair I i, i + 1 d i and R pair I i, i + 1 d i + 1 of said pair of pairs of adjacent measuring electrodes is as close as possible to the target value R sh target; c) determining a sheet resistance value R Sh of the absorber material layer and a contact resistance value R c of one of the measuring electrodes with the absorber material layer, by linear interpolation between at least three of the measured resistance values R pair I i, i + 1 d i and/or R pair I i, i + 1 d i + 1 for the different values I i,i+1 determined in step b).
A method for machining a workpiece by electrochemical discharge machining (ECDM), electrochemical machining or electric discharge machining, the method comprising: removing the material from the workpiece by sequentially machining a number of pockets, compensating for the wear of the machining electrode by: selecting a current pocket to be machined from plural pockets of the workpiece; updating a wear compensation to be applied to the electrode for the current pocket generated by a tool wear model based on a wear compensation of a previous pocket, wherein the previous pocket is adjacent to the current pocket; and applying the updated wear compensation to compensate for wear to the geometry of the electrode to the electrode for machining the current pocket. removing the material from the workpiece by sequentially machining a number of pockets, compensating for the wear of the machining electrode by: selecting a current pocket to be machined from plural pockets of the workpiece; updating a wear compensation to be applied to the electrode for the current pocket generated by a tool wear model based on a wear compensation of a previous pocket, wherein the previous pocket is adjacent to the current pocket; and applying the updated wear compensation to compensate for wear to the geometry of the electrode to the electrode for machining the current pocket. selecting a current pocket to be machined from plural pockets of the workpiece; updating a wear compensation to be applied to the electrode for the current pocket generated by a tool wear model based on a wear compensation of a previous pocket, wherein the previous pocket is adjacent to the current pocket; and applying the updated wear compensation to compensate for wear to the geometry of the electrode to the electrode for machining the current pocket.
A data transmission system for an electrosurgical system comprising: a transmission circuit configured to convert a first data stream and a second data stream into a pulsed transmission signal, wherein a first signal property of the transmission signal is representative of the first data stream and a second signal property of the transmission signal is representative of the second data stream; a signal processor configured to process the transmission signal to decode the first signal property into the first data stream and the second signal property into the second data stream, characterised in that the transmission circuit includes: a voltage-to-frequency converter to convert the first data stream into a corresponding first frequency pulse; a first multivibrator for outputting a first pulsed signal in response to the first frequency pulse; a shift register configured to accept as input the first frequency pulse and the second data stream and to output at least one of a high logic and a low logic signals; a second multivibrator configured to output a second pulsed signal if the shift register outputs the high logic signal; and a NOR gate configured to select one of the first and second pulsed signals to form the transmission signal. a transmission circuit configured to convert a first data stream and a second data stream into a pulsed transmission signal, wherein a first signal property of the transmission signal is representative of the first data stream and a second signal property of the transmission signal is representative of the second data stream; a signal processor configured to process the transmission signal to decode the first signal property into the first data stream and the second signal property into the second data stream, characterised in that the transmission circuit includes: a voltage-to-frequency converter to convert the first data stream into a corresponding first frequency pulse; a first multivibrator for outputting a first pulsed signal in response to the first frequency pulse; a shift register configured to accept as input the first frequency pulse and the second data stream and to output at least one of a high logic and a low logic signals; a second multivibrator configured to output a second pulsed signal if the shift register outputs the high logic signal; and a NOR gate configured to select one of the first and second pulsed signals to form the transmission signal. a voltage-to-frequency converter to convert the first data stream into a corresponding first frequency pulse; a first multivibrator for outputting a first pulsed signal in response to the first frequency pulse; a shift register configured to accept as input the first frequency pulse and the second data stream and to output at least one of a high logic and a low logic signals; a second multivibrator configured to output a second pulsed signal if the shift register outputs the high logic signal; and a NOR gate configured to select one of the first and second pulsed signals to form the transmission signal.
A device for weighing slaughter products, comprising conveying means for conveying the slaughter products, the conveying means comprising a frame, two pulley means which are connected to the frame a fixed distance apart, being rotatable about two respective first vertical axes of rotation, an endless flexible conveying element which is passed over the two pulley means, which conveying element extends along a rectilinear weighing path between the two pulley means, a guide extending along a conveying path, hooks for the slaughter products, which hooks are connected to the conveying element at regular intervals and which are each provided with a guide elements for guiding cooperation with the guide, weighing means for weighing slaughter products that are present within the weighing section, reducing means for reducing tensile stress in the conveying element insofar as it extends in the weighing section, said reducing means comprising transmission means that are operative between the two pulley means, characterised in that the transmission means comprise a gear transmission with at least two meshing gears which are rotatable about respective second vertical axes of rotation, wherein the second axis of rotation of one of the at least two gears is in line with a first vertical axis of rotation, and wherein the second axis of rotation of another of the at least two gears is in line with the other first vertical axis of rotation.
Optical module for a motor vehicle comprising: - a heat sink, - at least one light source arranged on the heat sink, - at least one optical surface fixed to the heat sink and adapted to cooperate with the at least one light source; the heat sink comprising a bent plate, said plate comprising: - a central part adapted to receive the at least one light source of the optical module and comprising two common edges (A1, A2) with two side parts, the two common edges (A1, A2) forming bending axes of said plate; and - the two lateral parts each forming an angle (β) with said central part, the heat sink further comprising means for centering the optical surface of the optical module, said heat sink further comprising fixing lugs for fixing the optical surface of the optical module disposed on either side of the central part, and the plate being formed by cutting a sheet of a thermally conductive material and bending said plate so as to form the central portion and both side portions, and the fixing tabs of the optical surface are formed by cutting and punching said plate. - a heat sink, - at least one light source arranged on the heat sink, - at least one optical surface fixed to the heat sink and adapted to cooperate with the at least one light source; - a central part adapted to receive the at least one light source of the optical module and comprising two common edges (A1, A2) with two side parts, the two common edges (A1, A2) forming bending axes of said plate; and - the two lateral parts each forming an angle (β) with said central part,
Planetary gear bearing arrangement, comprising a planetary gear carrier, on which a fixed bearing pin is provided, on which a planetary gear is mounted rotatably via a plain bearing with a first sliding layer which is provided on the pin side and a second sliding layer which is provided on the gear side, characterized in that one of the two sliding layers (8, 11) is produced on a surface (10, 19) which is profiled in an arched manner exclusively in the edge regions of a sliding region.
Apparatus comprising a vessel and a chemical feed distributor passing therein, the chemical feed distributor comprising: a chemical feed inlet that passes a chemical feed stream into the chemical feed distributor, the chemical feed stream consisting of a first portion and a second portion; a body comprising one or more walls and a plurality of primary chemical feed outlets, wherein the one or more walls define an elongated chemical feed stream flow path, wherein the plurality of primary chemical feed outlets are spaced along at least a portion of the length of the elongated chemical feed stream flow path, and wherein the plurality of primary chemical feed outlets are arranged to pass the first portion of the chemical feed stream out of the feed distributor and into the vessel; and a secondary chemical feed outlet downstream of the plurality of primary chemical feed outlets, wherein the secondary chemical feed outlet is arranged to pass the second portion of the chemical feed stream out of the chemical feed distributor such that the second portion of the chemical feed stream is passed through the chemical feed distributor and does not enter the vessel. a chemical feed inlet that passes a chemical feed stream into the chemical feed distributor, the chemical feed stream consisting of a first portion and a second portion; a body comprising one or more walls and a plurality of primary chemical feed outlets, wherein the one or more walls define an elongated chemical feed stream flow path, wherein the plurality of primary chemical feed outlets are spaced along at least a portion of the length of the elongated chemical feed stream flow path, and wherein the plurality of primary chemical feed outlets are arranged to pass the first portion of the chemical feed stream out of the feed distributor and into the vessel; and a secondary chemical feed outlet downstream of the plurality of primary chemical feed outlets, wherein the secondary chemical feed outlet is arranged to pass the second portion of the chemical feed stream out of the chemical feed distributor such that the second portion of the chemical feed stream is passed through the chemical feed distributor and does not enter the vessel.
A label laminate web comprising a face stock (101, 201, 301), a pressure sensitive adhesive layer (102, 202, 302, 402) and a release liner (103, 203), the face stock (101, 201, 301) being adjoined to the release liner (103, 203) via the pressure sensitive adhesive layer (102, 202, 302, 402), wherein - the pressure sensitive adhesive layer (102, 202, 302, 402) comprises an open-closure type removable pressure sensitive adhesive, - a predetermined level of anchorage is arranged between the face stock (101, 201, 301) and the pressure sensitive adhesive layer (102, 202, 302, 402) for obtaining clean peel, - the release liner (103, 203) comprises a release agent arranged to build a releasable contact with the pressure sensitive adhesive layer (102, 202, 302, 402), - the label laminate web comprises at least one label width, and - the face stock (101, 201, 301) of the at least one label width comprises an adhesive area and at least one adhesion-free area on longitudinal edge of the face stock (101, 201, 301) in machine direction of the label laminate web, accuracy of the width and/or position of the adhesion-free area in cross machine direction along longitudinal edge of the face stock (101, 201) being at least ± 1.0 mm. - the pressure sensitive adhesive layer (102, 202, 302, 402) comprises an open-closure type removable pressure sensitive adhesive, - a predetermined level of anchorage is arranged between the face stock (101, 201, 301) and the pressure sensitive adhesive layer (102, 202, 302, 402) for obtaining clean peel, - the release liner (103, 203) comprises a release agent arranged to build a releasable contact with the pressure sensitive adhesive layer (102, 202, 302, 402), - the label laminate web comprises at least one label width, and - the face stock (101, 201, 301) of the at least one label width comprises an adhesive area and at least one adhesion-free area on longitudinal edge of the face stock (101, 201, 301) in machine direction of the label laminate web, accuracy of the width and/or position of the adhesion-free area in cross machine direction along longitudinal edge of the face stock (101, 201) being at least ± 1.0 mm.