mhurhangee/ep-ind-claims huggingface dataset:
A method of assignment of an RFID reader to a network printer including the steps of: a) assigning a unique printer identifier to a printer, b) transmitting the unique printer identifier to a pass deployment center and to a configuration server, c) generating a confirmation credential, including the unique printer identifier for the printer by the pass deployment center together with a unique link to the confirmation credential, d) generating a machine-readable code from the unique link and printing and/or displaying the machine readable code by the printer, e) reading the machine readable code by a mobile device using its camera and transferring the unique link to the mobile device, f) opening the unique link by the mobile device and transferring the credential to the mobile device as a wallet pass so that it can be read via NFC, g) reading the credential from the mobile device by a RFID reader which is to be linked to the printer, h) transmitting by the RFID reader the credential, together with its own unique reader identifier to the configuration server, and i) establishing an assignment between the printer and the reader based on the unique printer identifier and the unique reader identifier. a) assigning a unique printer identifier to a printer, b) transmitting the unique printer identifier to a pass deployment center and to a configuration server, c) generating a confirmation credential, including the unique printer identifier for the printer by the pass deployment center together with a unique link to the confirmation credential, d) generating a machine-readable code from the unique link and printing and/or displaying the machine readable code by the printer, e) reading the machine readable code by a mobile device using its camera and transferring the unique link to the mobile device, f) opening the unique link by the mobile device and transferring the credential to the mobile device as a wallet pass so that it can be read via NFC, g) reading the credential from the mobile device by a RFID reader which is to be linked to the printer, h) transmitting by the RFID reader the credential, together with its own unique reader identifier to the configuration server, and i) establishing an assignment between the printer and the reader based on the unique printer identifier and the unique reader identifier.
Watch case (1, 2) adapted to be integrated into a wrist watch device, the watch case comprising a main body having an inner volume (2.1) for housing internal components of said wrist watch device, a bottom (2.3) and attachment means (2.2) having points of attachment (2.2.6) for attaching at least one watch strap (7, 8) of said wrist watch device, wherein at least one portion (2.1.2) of said inner volume (2.1) of the watch case extends laterally beyond the points of attachment (2.2.6) for said at least one watch strap (7, 8), characterised in that said points of attachment (2.2.6) for said at least one watch strap (7, 8), are situated at a height of about 30% to 60% of the total height of the main body of the watch case above the plane of the bottom (2.3) of the watch case.
An electric machine defining an axial direction, a radial direction, and a circumferential direction, the electric machine comprising: a stator assembly; and a rotor disk rotatable about the axial direction relative to the stator assembly, the rotor disk comprising a plurality of rotor magnets embedded therein, at least some of the rotor magnets being spaced apart along the axial direction by a web, the rotor magnets being operable with the stator assembly to produce a torque, and the rotor magnets being spaced from the stator assembly along the axial direction of the electric machine to generate an axial flux across an airgap; characterized in that the rotor magnets are a continuous magnet embedded within the rotor disk and extending along the circumferential direction, wherein the continuous magnet comprises alternating polarity portions arranged along the circumferential direction; and wherein the electric machine comprises a plurality of rotor disks and a plurality of stator assemblies, the rotor disks and the stator assemblies being alternately stacked together along the axial direction. a stator assembly; and a rotor disk rotatable about the axial direction relative to the stator assembly, the rotor disk comprising a plurality of rotor magnets embedded therein, at least some of the rotor magnets being spaced apart along the axial direction by a web, the rotor magnets being operable with the stator assembly to produce a torque, and the rotor magnets being spaced from the stator assembly along the axial direction of the electric machine to generate an axial flux across an airgap; characterized in that the rotor magnets are a continuous magnet embedded within the rotor disk and extending along the circumferential direction, wherein the continuous magnet comprises alternating polarity portions arranged along the circumferential direction; and wherein the electric machine comprises a plurality of rotor disks and a plurality of stator assemblies, the rotor disks and the stator assemblies being alternately stacked together along the axial direction.
A collagen-alginate wound dressing, comprising a matrix in which a low-molecularized collagen and a low-molecularized alginate are crosslinked, wherein an average molecular weight of the low-molecularized collagen is 10,000 Da to 30,000 Da, and wherein an average molecular weight of the low-molecularized alginate is 5,000 Da to 30,000 Da. wherein an average molecular weight of the low-molecularized collagen is 10,000 Da to 30,000 Da, and wherein an average molecular weight of the low-molecularized alginate is 5,000 Da to 30,000 Da.
A deformable fingerprint recognition device characterized by comprising: a fingerprint sensor configured to be deformable in shape; and a strain sensor (S10, S11) disposed on the fingerprint sensor and configured to measure a deformation distribution of the fingerprint sensor, wherein the deformable fingerprint recognition device is configured to correct a fingerprint detection of the fingerprint sensor to a non-deformed state based on the curvature of the deformation of the fingerprint sensor based on the deformation distribution and to recognize a fingerprint based on the corrected fingerprint detection. a fingerprint sensor configured to be deformable in shape; and a strain sensor (S10, S11) disposed on the fingerprint sensor and configured to measure a deformation distribution of the fingerprint sensor, wherein the deformable fingerprint recognition device is configured to correct a fingerprint detection of the fingerprint sensor to a non-deformed state based on the curvature of the deformation of the fingerprint sensor based on the deformation distribution and to recognize a fingerprint based on the corrected fingerprint detection.
A method for mapping an input message to a message authentication code by a white-box implementation of a keyed cryptographic operation in a cryptographic system, comprising: calculating k 0 = H ( E k), where H is an encoding function, E k is a white-box implementation of a block cipher using a key k; calculating k 1 = k 0 ≪ 1 when msb( k 0) = 0 or k 1 = ENC 1 ( k 0 ≪ 1) when msb( k 0) = 1 where ENC 1 is an encoding function; calculating k 2 = k 1 ≪ 1 when msb( k 1) = 0 or k 2 = ENC 2 ( k 1 ≪ 1) when msb( k 1) = 1 where ENC 2 is an encoding function; dividing the input message into b -bit blocks m = m 1 ∥... ∥ m n- 1 ∥ m n where m 1,..., m n -1 are complete blocks where b is an integer; calculating m n ' = ENC 3 ( k 1 ⊕ m n) when m n is a complete block and m n ' = ENC 3( k 2 ⊕ ( m n ∥ 10...0 2)) when m n is an incomplete block where ENC 3 is an encoding function; calculating c i = Encrypt i ( c i- 1 ⊕ m i) for i = 1,..., n-1, where c 0 = 00...0 2, Encrypt i ( x) = F i / 2 + 1 (E k (x)) when i is odd or Encrypt i x = E k F i / 2 + 1 − 1 x when i is even, and Fi is an encoding function; calculating c n = E k ( G -1 ( c n -1 ⊕ m n ')); and outputting a portion of c n. calculating k 0 = H ( E k), where H is an encoding function, E k is a white-box implementation of a block cipher using a key k; calculating k 1 = k 0 ≪ 1 when msb( k 0) = 0 or k 1 = ENC 1 ( k 0 ≪ 1) when msb( k 0) = 1 where ENC 1 is an encoding function; calculating k 2 = k 1 ≪ 1 when msb( k 1) = 0 or k 2 = ENC 2 ( k 1 ≪ 1) when msb( k 1) = 1 where ENC 2 is an encoding function; dividing the input message into b -bit blocks m = m 1 ∥... ∥ m n- 1 ∥ m n where m 1,..., m n -1 are complete blocks where b is an integer; calculating m n ' = ENC 3 ( k 1 ⊕ m n) when m n is a complete block and m n ' = ENC 3( k 2 ⊕ ( m n ∥ 10...0 2)) when m n is an incomplete block where ENC 3 is an encoding function; calculating c i = Encrypt i ( c i- 1 ⊕ m i) for i = 1,..., n-1, where c 0 = 00...0 2, Encrypt i ( x) = F i / 2 + 1 (E k (x)) when i is odd or Encrypt i x = E k F i / 2 + 1 − 1 x when i is even, and Fi is an encoding function; calculating c n = E k ( G -1 ( c n -1 ⊕ m n ')); and outputting a portion of c n.
Device for extracting a liquid from a tank which comprises a liquid section for holding a liquid, preferably a beverage, as well as a gas section for holding a propellant gas, preferably carbon dioxide, with a gas-valve section on the tank side, wherein the device comprises: an mounting section, which is configured to implement a mechanical and functional connection of the device to the tank in an assembled state; and a gas-valve section on the extraction side which, in an assembled state, is connected to the gas-valve section on the tank side in such a way that they cumulatively form a gas outlet which allows the propellant gas to be extracted from the gas section; characterized in that, the gas-valve section on the extraction side is moveable, preferably being pivotable, in relation to the mounting section in an assembled state. an mounting section, which is configured to implement a mechanical and functional connection of the device to the tank in an assembled state; and a gas-valve section on the extraction side which, in an assembled state, is connected to the gas-valve section on the tank side in such a way that they cumulatively form a gas outlet which allows the propellant gas to be extracted from the gas section; characterized in that, the gas-valve section on the extraction side is moveable, preferably being pivotable, in relation to the mounting section in an assembled state.
A method comprising: receiving a first packet on a first connection; determining that said first packet is associated with a first session, said first session not being a secure session; transmitting said first packet at a low transmission rate on a second connection; receiving a second packet on said first connection; determining that said second packet is associated with a second session, said second session being a secure session; transmitting said second packet at a high transmission rate on said second connection, receiving a third packet on said first connection; determining that said third packet is associated with said first session; determining that said first session has changed to a secure session; and transmitting said third packet at said high transmission rate on said second connection. receiving a first packet on a first connection; determining that said first packet is associated with a first session, said first session not being a secure session; transmitting said first packet at a low transmission rate on a second connection; receiving a second packet on said first connection; determining that said second packet is associated with a second session, said second session being a secure session; transmitting said second packet at a high transmission rate on said second connection, receiving a third packet on said first connection; determining that said third packet is associated with said first session; determining that said first session has changed to a secure session; and transmitting said third packet at said high transmission rate on said second connection.
A method for processing signals, the method comprising: in a global navigation satellite system (GNSS) enabled device (112, 114, 116, 200) that is operable to handle a plurality of sensors (132, 134, 136, 222a, 222b, 222c): collecting GNSS measurements and navigation related non-GNSS sensor data; estimating measurement errors in said collected navigation related non-GNSS sensor data; determining measurement accuracy for said collected navigation related non-GNSS sensor data based on said measurement error estimation; removing from said collected navigation related non-GNSS sensor data collected navigation related non-GNSS sensor data with low determined measurement accuracy for obtaining an adopted collected navigation related non-GNSS sensor data with higher determined measurement accuracy; formatting said adopted collected navigation related non-GNSS sensor data into a data format that is compliant with a format of said collected GNSS measurements; time tagging said formatted adopted navigation related non-GNSS sensor data; and computing by a single function, navigation information for said GNSS enabled device utilizing said collected GNSS measurements and said time tagged non-GNSS sensor data by combining said collected GNSS measurements with said time tagged navigation related non-GNSS sensor data to compute said navigation information, by said single function, for said GNSS enabled device. collecting GNSS measurements and navigation related non-GNSS sensor data; estimating measurement errors in said collected navigation related non-GNSS sensor data; determining measurement accuracy for said collected navigation related non-GNSS sensor data based on said measurement error estimation; removing from said collected navigation related non-GNSS sensor data collected navigation related non-GNSS sensor data with low determined measurement accuracy for obtaining an adopted collected navigation related non-GNSS sensor data with higher determined measurement accuracy; formatting said adopted collected navigation related non-GNSS sensor data into a data format that is compliant with a format of said collected GNSS measurements; time tagging said formatted adopted navigation related non-GNSS sensor data; and computing by a single function, navigation information for said GNSS enabled device utilizing said collected GNSS measurements and said time tagged non-GNSS sensor data by combining said collected GNSS measurements with said time tagged navigation related non-GNSS sensor data to compute said navigation information, by said single function, for said GNSS enabled device.
A method for use with a data integration environment, comprising: performing a metadata analysis of accessed entity data to determine at least one entity attribute; performing a search on a plurality of target datasets using the at least one entity attribute to determine a candidate subset of the plurality of target datasets; extracting one or more features of the accessed entity data and the candidate subset of target datasets, wherein the one or more features comprise metadata, data type and statistical profiles for each entity attribute; applying a machine learning process to the accessed entity data and each dataset of the candidate subset of target datasets to determine a similarity score, based on the extracted one or more features; and determining an exact mapping between each dataset of the candidate subset and the accessed entity data based on the similarity score; providing the exact mapping to a software development component. performing a metadata analysis of accessed entity data to determine at least one entity attribute; performing a search on a plurality of target datasets using the at least one entity attribute to determine a candidate subset of the plurality of target datasets; extracting one or more features of the accessed entity data and the candidate subset of target datasets, wherein the one or more features comprise metadata, data type and statistical profiles for each entity attribute; applying a machine learning process to the accessed entity data and each dataset of the candidate subset of target datasets to determine a similarity score, based on the extracted one or more features; and determining an exact mapping between each dataset of the candidate subset and the accessed entity data based on the similarity score; providing the exact mapping to a software development component.
Trailer coupling comprising a mounting part for fastening the trailer coupling to a towing vehicle, a ball head and a hold-down plate, the ball head and the hold-down plate forming a unit which is coupled to the mounting part so as to be pivotable about a pivot axis, the pivot axis being aligned so that it intersects the ball head, characterized in that, when the trailer coupling is attached to the towing vehicle, the pivot axis is aligned parallel to a rear axle of the towing vehicle in order to enable the unit consisting of the ball head and hold-down plate to pivot during transit and when driving through troughs.
Milling device for surgery comprising a handling body containing a transmission unit terminating in respective attachment portions (19, 20) which comprise a distal attachment portion with which there are associated hooking means of the releasable type for a cutter of said device, wherein said hooking means comprise a central body and an annular body mobile with respect to said central body both axially and also angularly with respect to a milling axis thus selectively defining a condition of releasable clamping and of disengagement of said cutter with respect to said central body, wherein said central body comprises a connection portion on which there are hooking slots configured to determine a releasable bayonet-type connection between a joining portion of said cutter and corresponding apertures parallel to said milling axis and characterised in that said annular body is provided with clamping elements which project in an axial direction toward said connection portion and are configured to be inserted inside said apertures in order to close access to the respective hooking slots when said annular body is in said releasable clamping condition. wherein said hooking means comprise a central body and an annular body mobile with respect to said central body both axially and also angularly with respect to a milling axis thus selectively defining a condition of releasable clamping and of disengagement of said cutter with respect to said central body, wherein said central body comprises a connection portion on which there are hooking slots configured to determine a releasable bayonet-type connection between a joining portion of said cutter and corresponding apertures parallel to said milling axis and characterised in that said annular body is provided with clamping elements which project in an axial direction toward said connection portion and are configured to be inserted inside said apertures in order to close access to the respective hooking slots when said annular body is in said releasable clamping condition.
A system for manufacturing a molded product, comprising a molding machine, an apparatus for taking out a molded product, and one or more peripheral devices arranged around the apparatus to operate together during operation of the apparatus, characterized in: at least one of the molding machine and the apparatus includes a communication device operable to transmit internal data to an external server together with identification information on a die mounted to the molding machine via a communication network; and the communication device is configured to transmit external data, which is output from the one or more peripheral devices, to the external server together with the identification information on the die. at least one of the molding machine and the apparatus includes a communication device operable to transmit internal data to an external server together with identification information on a die mounted to the molding machine via a communication network; and the communication device is configured to transmit external data, which is output from the one or more peripheral devices, to the external server together with the identification information on the die.
An information processing program executed by a computer included in an information processing apparatus for vibrating a vibrator (107, 117) of a device (3, 4), the information processing program causing the computer to function as: vibration data generation means (81, S168, S170, S185, S187, S195, S197, S205, S207) for generating vibration data for vibrating the vibrator; function selection means (81, S169, S171, S186, S188, S196, S198, S206, S208) for, in accordance with a use form of the device, selecting a first function or a second function, wherein the use form includes a first use form in which the device including the vibrator has been detached from a main body of the information processing apparatus and is used, and a second use form in which the device including the vibrator has been attached to the main body of the information processing apparatus and is used, and wherein the function selection means selects different functions depending on whether the use form of the device is the first use form or the second use form; amplitude value setting means (81, S169, S171, S186, S188, S196, S198, S206, S208) for, based on an amplitude value (x) in the vibration data and the function selected by the function selection means, setting a new amplitude value (y); and vibration data output means (81, S172, S189, S199, S210) for outputting vibration data including the amplitude value set by the amplitude value setting means to the device. vibration data generation means (81, S168, S170, S185, S187, S195, S197, S205, S207) for generating vibration data for vibrating the vibrator; function selection means (81, S169, S171, S186, S188, S196, S198, S206, S208) for, in accordance with a use form of the device, selecting a first function or a second function, wherein the use form includes a first use form in which the device including the vibrator has been detached from a main body of the information processing apparatus and is used, and a second use form in which the device including the vibrator has been attached to the main body of the information processing apparatus and is used, and wherein the function selection means selects different functions depending on whether the use form of the device is the first use form or the second use form; amplitude value setting means (81, S169, S171, S186, S188, S196, S198, S206, S208) for, based on an amplitude value (x) in the vibration data and the function selected by the function selection means, setting a new amplitude value (y); and vibration data output means (81, S172, S189, S199, S210) for outputting vibration data including the amplitude value set by the amplitude value setting means to the device.
A method for preparing an organic fluorinated aliphatic compound, which comprises a step of allowing a fluorine salt to react with a leaving group-containing aliphatic compound by using a multifunctional solvent represented by the following Chemical Formula 1 to obtain an aliphatic compound labeled with [ 18 F] fluoride substituting for the leaving group: wherein each of R 1 and R 2 independently represents H, a C1-C10 alkyl group or the same functional group as X 1; Ln represents a C1-C10 alkylene group or is a polyethylene glycol represented by CH 2 (OCH 2 CH 2)n wherein n is an integer of 1-10; X 1 represents any one polar group selected from an alkoxy group (OR 3), nitrile group and halide; and R 3 represents a C1-C10 alkyl group.