mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method, comprising: obtaining, by a computing device, an initiation Manifest object for a data collection, wherein the initiation Manifest includes an Access Control Specification, ACS, that specifies an end-to-end access control scheme for obtaining and decrypting one or more Content Objects of the data collection; obtaining a public key of a publisher from the ACS in the initiation Manifest; determining, by the computing device from the ACS, an encryption algorithm for a session with the publisher; disseminating a setup Interest message over an Information Centric Network, ICN, for the publisher, wherein the setup Interest message includes a temporary key encrypted using the determined encryption algorithm and the publisher's public key; receiving a setup Content Object over ICN that satisfies the setup Interest message, wherein the setup Content Object includes a session key and a session identifier; disseminating a finish Interest message over ICN for the publisher, wherein the finish Interest message includes the session identifier; and receiving an in-session Manifest that satisfies the finish Interest message, wherein the in-session Manifest includes references to one or more Content Objects of the data collection that are encrypted using the session key. obtaining, by a computing device, an initiation Manifest object for a data collection, wherein the initiation Manifest includes an Access Control Specification, ACS, that specifies an end-to-end access control scheme for obtaining and decrypting one or more Content Objects of the data collection; obtaining a public key of a publisher from the ACS in the initiation Manifest; determining, by the computing device from the ACS, an encryption algorithm for a session with the publisher; disseminating a setup Interest message over an Information Centric Network, ICN, for the publisher, wherein the setup Interest message includes a temporary key encrypted using the determined encryption algorithm and the publisher's public key; receiving a setup Content Object over ICN that satisfies the setup Interest message, wherein the setup Content Object includes a session key and a session identifier; disseminating a finish Interest message over ICN for the publisher, wherein the finish Interest message includes the session identifier; and receiving an in-session Manifest that satisfies the finish Interest message,
A support for a removable artificial tissue scaffold to produce engineered tissue, the support comprising an elongate member having a first tubular region having a substantially flat perimeter region connected to a second tubular region, wherein the first tubular region has a different transverse cross-section than the transverse cross-section of the second tubular region, wherein the transverse cross-section of the first tubular region has an outer perimeter defining a convex, curvilinear region separated by the substantially flat perimeter region, wherein the transition from the convex, curvilinear perimeter region to the substantially flat perimeter region is a substantially smooth transition such that the first tubular region has bilateral symmetry and further, wherein the axis of symmetry passes perpendicularly through the midpoint of the substantially flat perimeter region and a transition region located between the first and second tubular regions, and the transverse cross-section of the second tubular region is circular, and wherein the support is made partially or entirely of a conductive metal.
A switching device comprising: - a switching unit comprising an external case that houses one or more electric poles (2A, 2B), said switching unit comprising, for each of said electric poles, a first disconnection contact, a second disconnection contact and one or more solid state switches, which can be switched between an on-state and an off-state, and viceversa; - a supporting frame comprising, for each of said electric poles, a third disconnection contact and a fourth disconnection contact, wherein said switching unit is movable, with respect to said supporting frame, between an insertion position where said first disconnection contact and said disconnection contact are coupled with the corresponding third disconnection contact and fourth disconnection contact, respectively, and a withdrawn position where said first disconnection contact and said disconnection contact are separated from the corresponding third disconnection contact and fourth disconnection contact, respectively, and viceversa; - actuating means for moving said switching unit between said insertion position and said withdrawn position, and viceversa; - a control unit, which is configured to control the operation of said switching unit and said actuating means, said control unit comprising control means that are configured to coordinate the operation of said actuating means and said solid state switches, when an insertion/withdrawn operation of said switching unit has to be performed, so that said actuating means move said switching unit only when said solid state switches are in an off state. - a switching unit comprising an external case that houses one or more electric poles (2A, 2B), said switching unit comprising, for each of said electric poles, a first disconnection contact, a second disconnection contact and one or more solid state switches, which can be switched between an on-state and an off-state, and viceversa; - a supporting frame comprising, for each of said electric poles, a third disconnection contact and a fourth disconnection contact, wherein said switching unit is movable, with respect to said supporting frame, between an insertion position where said first disconnection contact and said disconnection contact are coupled with the corresponding third disconnection contact and fourth disconnection contact, respectively, and a withdrawn position where said first disconnection contact and said disconnection contact are separated from the corresponding third disconnection contact and fourth disconnection contact, respectively, and viceversa; - actuating means for moving said switching unit between said insertion position and said withdrawn position, and viceversa; - a control unit, which is configured to control the operation of said switching unit and said actuating means, said control unit comprising control means that are configured to coordinate the operation of said actuating means and said solid state switches, when an insertion/withdrawn operation of said switching unit has to be performed, so that said actuating means move said switching unit only when said solid state switches are in an off state.
A computer-implemented method for detecting potential pinches (pi) caused by at least one powered movable panel, said panel being movable in a time or panel position domain (X-axis) between an open position and a closed position, the method comprising a round that is successively repeated, a round including: - measuring, by a measuring device, a physical quantity (q), representative of a panel movement, when the panel is moved towards the closed position within said time or panel position domain (X-axis), - determining if there is a lack of steadiness in said physical quantity (q) relative to a previous round (R -1), by calculating a first difference (Δ1) between the physical quantity (q) measured at the current round and the physical quantity (q) measured at said previous round (R -1) and comparing said first difference (Δ1) with a first threshold value (Th1; Th1'), - if a lack of steadiness is not found, starting a new round, characterized in that the method further comprises the following steps: - if a lack of steadiness is found, determining if said lack of steadiness was already present during said previous round (R -1) - if a lack of steadiness was not present, storing at least one current parameter ( q(t), t) specific to the panel movement as a reference value (q 0, t 0), and starting a new round, - if a lack of steadiness was present, detecting a potential pinch (pi) if a second difference (Δ2) between the parameter (q(t), t), at the present time (t), and the reference value (q 0, t 0) is greater than or equal to a pinching threshold value (Thpi, Thpi'), otherwise starting a new round. - measuring, by a measuring device, a physical quantity (q), representative of a panel movement, when the panel is moved towards the closed position within said time or panel position domain (X-axis), - determining if there is a lack of steadiness in said physical quantity (q) relative to a previous round (R -1), by calculating a first difference (Δ1) between the physical quantity (q) measured at the current round and the physical quantity (q) measured at said previous round (R -1) and comparing said first difference (Δ1) with a first threshold value (Th1; Th1'), - if a lack of steadiness is not found, starting a new round, characterized in that the method further comprises the following steps: - if a lack of steadiness is found, determining if said lack of steadiness was already present during said previous round (R -1) - if a lack of steadiness was not present, storing at least one current parameter ( q(t), t) specific to the panel movement as a reference value (q 0, t 0), and starting a new round, - if a lack of steadiness was present, detecting a potential pinch (pi) if a second difference (Δ2) between the parameter (q(t), t), at the present time (t), and the reference value (q 0, t 0) is greater than or equal to a pinching threshold value (Thpi, Thpi'), otherwise starting a new round.
An X-ray computed tomography apparatus comprising: an X-ray generation unit configured to generate X-rays; an X-ray detection unit configured to detect X-rays generated from the X-ray generation unit and transmitted through an object; a projection data generation unit configured to generate projection data based on an output from the X-ray detection unit; a variance data generation unit configured to generate variance data based on the projection data and noise data concerning predetermined noise; a statistical weight generation unit configured to generate a statistical weight by compressing the variance data to a predetermined data range; and a reconstruction unit configured to reconstruct volume data by iterative reconstruction processing based on the projection data and the statistical weight; wherein the variance data generation unit is configured to: generate filtering data by performing predetermined filtering processing for original data on which the projection data is based, and generate the variance data by dividing a sum of the filtering data and the noise data by a square of the filtering data; Characterised In That: the statistical weight generation unit is configured to compress the variance data to the data range by replacing a value, of the variance data, over an upper limit value of the data range with the upper limit value and replacing a value, of the variance data, below an lower limit value of the data range with the lower limit value. an X-ray generation unit configured to generate X-rays; an X-ray detection unit configured to detect X-rays generated from the X-ray generation unit and transmitted through an object; a projection data generation unit configured to generate projection data based on an output from the X-ray detection unit; a variance data generation unit configured to generate variance data based on the projection data and noise data concerning predetermined noise; a statistical weight generation unit configured to generate a statistical weight by compressing the variance data to a predetermined data range; and a reconstruction unit configured to reconstruct volume data by iterative reconstruction processing based on the projection data and the statistical weight; wherein the variance data generation unit is configured to: generate filtering data by performing predetermined filtering processing for original data on which the projection data is based, and generate the variance data by dividing a sum of the filtering data and the noise data by a square of the filtering data; generate filtering data by performing predetermined filtering processing for original data on which the projection data is based, and generate the variance data by dividing a sum of the filtering data and the noise data by a square of the filtering data; Characterised In That: the statistical weight generation unit is configured to compress the variance data to the data range by replacing a value, of the variance data, over an upper limit value of the data range with the upper limit value and replacing a value, of the variance data, below an lower limit value of the data range with the lower limit value.
A feedthrough assembly for guiding at least one cable (A, C) and/or at least one conduit (B, D) through an opening in a wall part of a motor compartment of a vehicle, comprising a first feedthrough part comprising a first component and a second component, wherein the first component and the second component form an integral portion of the first feedthrough part, and wherein an elasticity of the second component is higher than an elasticity of the first component, a second feedthrough part comprising a first component and a second component, wherein the first component and the second component form an integral portion of the second feedthrough part, and wherein an elasticity of the second component is higher than an elasticity of the first component, and at least one feedthrough channel (36, 38, 40, 42) being arranged on at least one of the first feedthrough part and the second feedthrough part. a first feedthrough part comprising a first component and a second component, wherein the first component and the second component form an integral portion of the first feedthrough part, and wherein an elasticity of the second component is higher than an elasticity of the first component, a second feedthrough part comprising a first component and a second component, wherein the first component and the second component form an integral portion of the second feedthrough part, and wherein an elasticity of the second component is higher than an elasticity of the first component, and at least one feedthrough channel (36, 38, 40, 42) being arranged on at least one of the first feedthrough part and the second feedthrough part.
Device for providing radiofrequency signal connections for users in an aeroplane, comprising: - a first joint transmitter and receiver antenna, which is configured to transmit and receive WLAN signals and mobile radio signals in the aeroplane; characterised by - a first WLAN access point, which is connected to the first joint transmitter and receiver antenna via a first transmission and reception path, which comprises a first channel filter for filtering a first WLAN channel (Ch 6) and a first band-pass filter; and - a second WLAN access point, which is connected to the first joint transmitter and receiver antenna via a second transmission and reception path, which comprises a second channel filter for filtering a second WLAN channel (Ch 1) and a second band-pass filter, the first band-pass filter being arranged in a first band-pass filter group which is configured to transmit first mobile radio frequency bands, the centre frequency of the first WLAN channel (Ch 6) being further away than the centre frequencies of the second WLAN channel (Chan 1) from the frequencies of the first mobile radio frequency bands. - a first joint transmitter and receiver antenna, which is configured to transmit and receive WLAN signals and mobile radio signals in the aeroplane; - a first WLAN access point, which is connected to the first joint transmitter and receiver antenna via a first transmission and reception path, which comprises a first channel filter for filtering a first WLAN channel (Ch 6) and a first band-pass filter; and - a second WLAN access point, which is connected to the first joint transmitter and receiver antenna via a second transmission and reception path, which comprises a second channel filter for filtering a second WLAN channel (Ch 1) and a second band-pass filter,
A method for improving the wettability and/or adhesiveness of plastic surfaces for purposes of improving their ability to be printed, painted or glued, wherein a metal soap-free lubricant is added to the plastic for better processability, characterized in that an ester of an organic carboxylic acid, a fatty acid ester, or a glyceric acid ester, is used as metal soap-free lubricant for the plastic, that the plastic is chosen from the group consisting of polyamides, polyolefins, polyurethanes, ABS (acrylonitrile/butadiene/styrene), PBT (polybutylene terephthalate) and PC.
A driving circuit for a touch display device, the touch display device comprising a plurality of first electrodes disposed separate from or within a display panel and one or more second electrodes separated from the first electrodes by a gap, the size of which varies depending on a touching force, the driving circuit configured to: apply a first electrode driving signal during a touch driving period to at least one first electrode among the plurality of first electrodes; apply a second electrode driving signal different than the first electrode driving signal to the one or more second electrodes during the touch driving period; and detect in the touch driving period a touch position and the touching force based on a signal generated responsive to both the first electrode driving signal and the second electrode driving signal and received from each of the first electrodes. apply a first electrode driving signal during a touch driving period to at least one first electrode among the plurality of first electrodes; apply a second electrode driving signal different than the first electrode driving signal to the one or more second electrodes during the touch driving period; and detect in the touch driving period a touch position and the touching force based on a signal generated responsive to both the first electrode driving signal and the second electrode driving signal and received from each of the first electrodes.
A power converter assembly, comprising: a semi-conductor module (102a, 102b); a heat sink mechanically connected to the semi-conductor module; a first busbar assembly on a first side of the heat sink; and a second busbar assembly on a second side of the heat sink opposite from the first side, wherein the first and second busbar assemblies are electrically connected to one another; the assembly characterized in that: the first busbar assembly includes a DC positive layer, a DC negative layer and a DC neutral layer, and the second busbar assembly includes a DC positive layer, a DC negative layer and a DC neutral layer. a semi-conductor module (102a, 102b); a heat sink mechanically connected to the semi-conductor module; a first busbar assembly on a first side of the heat sink; and a second busbar assembly on a second side of the heat sink opposite from the first side, wherein the first and second busbar assemblies are electrically connected to one another; the assembly characterized in that: the first busbar assembly includes a DC positive layer, a DC negative layer and a DC neutral layer, and the second busbar assembly includes a DC positive layer, a DC negative layer and a DC neutral layer. the first busbar assembly includes a DC positive layer, a DC negative layer and a DC neutral layer, and the second busbar assembly includes a DC positive layer, a DC negative layer and a DC neutral layer.
Inspection apparatus for the optical control of crates with fan walls extending from a bottom plane for accommodating bottles, wherein the inspection apparatus comprises at least a camera and an illumination device for controlling the crates in transmitted light, and a transport device for transporting the crates between the illumination device and the camera, and wherein an optical axis of the camera is oriented during control relative to the bottom plane of the crate to be controlled and to a light exit surface of the illumination device, characterized in that the transport device is designed such that the bottom plane of the crates is inclined during control relative to a horizontal plane, so that outflowing dirt and/or a cleaning liquid run laterally past the light exit surface of the illumination device or the camera.
A blood/chitosan-HCl-NaCl composition comprising: a) whole blood; and b) a chitosan solution comprising: chitosan having an average molecular weight of M n < 232kDa, HCl, and NaCl at a concentration of 160mM; wherein the blood/chitosan-HCl-NaCl composition has a pH between 6.0 and 7.8; and wherein the blood/chitosan-HCl-NaCl composition coagulates faster than a blood/chitosan-HCl-β-glycerol phosphate composition. a) whole blood; and b) a chitosan solution comprising: chitosan having an average molecular weight of M n < 232kDa, HCl, and NaCl at a concentration of 160mM;
A method comprising: receiving (S1006, S1008), at a first computer (1025, 1030), a credential and a mobile device identifier from a mobile device; sending (S1008, S1012), by the first computer (1025, 1030), a token request message including the credential and the mobile device identifier to a second computer, the token request message being in the same format as an authorization request message that is to be used to authorize a transaction, wherein the token request message passes through an acquirer computer before the token request message is received by the second computer; receiving (S1034, S1032), at the first computer (1025, 1030), a token associated with the credential from the second computer in a token response message; sending (S1036, S1034), by the first computer (1025, 1030), the token response message including the token to the mobile device, which is in short-range communication with an access device; associating, by the mobile device, the token with a digital wallet application; receiving (S1040, S1042), at the first computer (1025, 1030), the token sent from the mobile device via the short-range communication with the access device for use with the transaction; generating, by the first computer (1025, 1030), a said authorization request message; and submitting, by the first computer (1025, 1030), the authorization request message including the token received from the mobile device to an authorization computer for the transaction by sending the authorization request message to the acquirer computer. receiving (S1006, S1008), at a first computer (1025, 1030), a credential and a mobile device identifier from a mobile device; sending (S1008, S1012), by the first computer (1025, 1030), a token request message including the credential and the mobile device identifier to a second computer, the token request message being in the same format as an authorization request message that is to be used to authorize a transaction, wherein the token request message passes through an acquirer computer before the token request message is received by the second computer; receiving (S1034, S1032), at the first computer (1025, 1030), a token associated with the credential from the second computer in a token response message; sending (S1036, S1034), by the first computer (1025, 1030), the token response message including the token to the mobile device, which is in short-range communication with an access device; associating, by the mobile device, the token with a digital wallet application; receiving (S1040, S1042), at the first computer (1025, 1030), the token sent from the mobile device via the short-range communication with the access device for use with the transaction; generating, by the first computer (1025, 1030), a said authorization request message; and submitting, by the first computer (1025, 1030), the authorization request message including the token received from the mobile device to an authorization computer for the transaction by sending the authorization request message to the acquirer computer.