mhurhangee/ep-ind-claims huggingface dataset:
An authentication method carried out by a wearable device and a mobile device, comprising: establishing a wireless communication between a mobile device and a wearable device during a pairing procedure; agreeing, by the mobile device and the wearable device, on authentication data during the pairing procedure, wherein the authentication data is a symmetric key; encrypting, by the mobile device, private data (32a, 32b) using private keys (33a, 33b) during the pairing procedure; encrypting, by the mobile device, the private keys (33a, 33b) with the symmetric key during the pairing procedure; after the pairing procedure, detecting, by the wearable device, a proximity between the mobile device and the wearable device by comparing mobile device position information and wearable device position information, wherein at least one of the mobile device position information and the wearable device position information is based on an inertial navigation system calculation; sending, by the wearable device, the symmetric key to the mobile device based on the detected proximity, and granting, by the mobile device, the wearable device access to the mobile device based on authentication of the symmetric key; and decrypting, by the mobile device, the encrypted private keys (33a, 33b) using the symmetric key based on the authentication in order to decrypt the encrypted private data (32a, 32b). establishing a wireless communication between a mobile device and a wearable device during a pairing procedure; agreeing, by the mobile device and the wearable device, on authentication data during the pairing procedure, wherein the authentication data is a symmetric key; encrypting, by the mobile device, private data (32a, 32b) using private keys (33a, 33b) during the pairing procedure; encrypting, by the mobile device, the private keys (33a, 33b) with the symmetric key during the pairing procedure; after the pairing procedure, detecting, by the wearable device, a proximity between the mobile device and the wearable device by comparing mobile device position information and wearable device position information, wherein at least one of the mobile device position information and the wearable device position information is based on an inertial navigation system calculation; sending, by the wearable device, the symmetric key to the mobile device based on the detected proximity, and granting, by the mobile device, the wearable device access to the mobile device based on authentication of the symmetric key; and decrypting, by the mobile device, the encrypted private keys (33a, 33b) using the symmetric key based on the authentication in order to decrypt the encrypted private data (32a, 32b).
Injection-molding device with a holding device for a central mold part in an injection-molding machine with a base, which is mounted displaceable in the longitudinal direction (x) of the injection-molding machine in a manner supported via first mounting blocks in the vertical direction (z) with respect to the machine bed of the injection-molding machine, characterized in that the base is mounted displaceable in the longitudinal direction (x) of the injection-molding machine in a manner supported via second mounting blocks in the circumferential direction with respect to the machine bed of the injection-molding machine.
Vehicle seat, in particular a motor vehicle seat, having a seat member, a backrest which is fitted to the seat member so as to be pivotable about a backrest axis, seat rails which are for adjusting the longitudinal seat position of the vehicle seat and which are provided on the seat member, a control lever which is for unlocking the seat rails and which is pivotably supported on the seat member, and an unlocking cam which is secured to the backrest for acting on the control lever, characterized in that the control lever has a deactivated state in which the unlocking cam moves past the control lever with spacing during the pivoting of the backrest, and an activated state in which the unlocking cam moves into abutment with the control lever and acts on it during the pivoting of the backrest, wherein the control lever has a first control arm, the actuation of which moves the control lever from the deactivated state into the activated state, and a second control arm which protrudes into the pivot range of the unlocking cam in the activated state.
A dispenser for producing a food or beverage liquid product from a frozen contents in a receptacle, the dispenser comprising: a chamber configured to hold a receptacle defining an enclosed inner volume containing a frozen liquid contents; a dilution liquid inlet configured to supply a dilution liquid to the inner volume of the receptacle when held in the chamber; a perforator configured to perforate the receptacle and form a product outlet from the receptacle for a food or beverage liquid product; and an agitator configured to impart motion to the receptacle that increases a flow path from the dilution liquid inlet to the product outlet taken by at least a portion of dilution liquid, when supplied, relative to a flow path from the dilution liquid inlet to the product outlet taken by the portion of dilution liquid without the imparted motion; wherein the chamber has a central axis and the imparted motion causes each of the dilution inlet and the product outlet to change its location about the central axis of the chamber. a chamber configured to hold a receptacle defining an enclosed inner volume containing a frozen liquid contents; a dilution liquid inlet configured to supply a dilution liquid to the inner volume of the receptacle when held in the chamber; a perforator configured to perforate the receptacle and form a product outlet from the receptacle for a food or beverage liquid product; and an agitator configured to impart motion to the receptacle that increases a flow path from the dilution liquid inlet to the product outlet taken by at least a portion of dilution liquid, when supplied, relative to a flow path from the dilution liquid inlet to the product outlet taken by the portion of dilution liquid without the imparted motion; wherein the chamber has a central axis and the imparted motion causes each of the dilution inlet and the product outlet to change its location about the central axis of the chamber.
A method for susceptibility weighted magnetic resonance imaging of vasculature, comprising the following steps: - acquiring multi-echo data containing a time-of-flight signal in at least the first echo; - identifying voxels belonging to arteries from the data; and - generating corresponding information on artery presence; wherein the method further comprises an echo combination step; and wherein said information on artery presence is used to put emphasis on an artery appearance during said echo combination step. - acquiring multi-echo data containing a time-of-flight signal in at least the first echo; - identifying voxels belonging to arteries from the data; and - generating corresponding information on artery presence;
A system which comprises a main lock, a reinforced deadbolt and a device to link the main lock with the reinforced deadbolt, characterised by a drive tooth mounted to the end of the rod of the reinforced deadbolt, the drive tooth being capable of transmitting the movement of the rod also to the main door lock by means of suitable pivoted levers or push rods so that the movement of the rotating rod of the reinforced deadbolt is also transmitted to the deadbolt and to the latch of the main lock; and designed to transmit the pushing movement of the reinforced deadbolt to the deadbolt of the main lock by means of a lever mechanism, preferrably with two or more of the pivoted levers; and operated via the locking cylinder of the reinforced deadbolt through both locks at the same time, while the main lock does not require an own locking cylinder for operation,
A flat tube for the flow therein of a fluid in a heat exchanger, the tube being formed by bending a sheet metal strip along the length of the strip, the tube comprising: a first main wall; a second main wall parallel to the first main wall, said main walls (4, 5) being substantially flat; two complementary side wall portions joining said main walls together so as to define a closed profile of the tube, said strip defining over its width a middle region and two intermediate regions on either side of said middle region, the first main wall of the tube being formed from said middle region, said second main wall of the tube comprising two wall portions (5A, 5B) each formed from a respective one of said intermediate regions, with said wall portions (5A. 5B) of the second main wall being juxtaposed in substantially a common plane, a median wall defined by a double thickness of the sheet metal strip with one part attached to a first wall portion and the other part attached to a second wall portion, and inner walls (8A, 8B) each formed from a respective one of said parts of the median wall, wherein a first piece of said inner wall is at least partially fixed and parallel to the first main wall, and a second piece of said inner wall is joining the main walls (4,5) within the middle region of the tube, characterised in that the sheet metal strip further comprises at least one deformation configured to locally deviate the surface of any of the walls (4,5,6, 5A, 5B), and in that at least one deformation is disposed on at least one of the inner walls (8A, 8B).
A Method for producing a compound of Formula I comprising the steps of: Step 1: Radiolabeling compound of Formula II with a F-18 fluorinating agent, to obtain compound of Formula I, if R = H or to obtain compound of Formula III, if R = PG Step 2: If R = PG, cleavage of the protecting group PG to obtain a compound of Formula I, Step 3: Purification and Formulation of a compound of Formula I wherein Step 3 comprises a purification by HPLC. wherein: n = 1-6, X is selected from the group consisting of a) CH, b) N, R is selected from the group consisting of a) H, b) PG, PG is an "Amine-protecting group", LG is a leaving group, wherein LG contains 0-3 fluorine atoms, wherein the radiofluorination reaction is carried out in acetonitrile, or wherein the radiofluorination reaction is carried out in a mixture of acetonitrile and co-solvents, wherein the percentage of acetonitrile is at least 50%. Step 1: Radiolabeling compound of Formula II with a F-18 fluorinating agent, to obtain compound of Formula I, if R = H or to obtain compound of Formula III, if R = PG Step 2: If R = PG, cleavage of the protecting group PG to obtain a compound of Formula I, Step 3: Purification and Formulation of a compound of Formula I wherein Step 3 comprises a purification by HPLC. n = 1-6, X is selected from the group consisting of a) CH, b) N, a) CH, b) N, R is selected from the group consisting of a) H, b) PG, a) H, b) PG, PG is an "Amine-protecting group", LG is a leaving group, wherein LG contains 0-3 fluorine atoms, wherein the radiofluorination reaction is carried out in acetonitrile, or wherein the radiofluorination reaction is carried out in a mixture of acetonitrile and co-solvents, wherein the percentage of acetonitrile is at least 50%.
Use of an activatable, de-esterified, pectin-converted fruit fibre for producing a scalded sausage from meat that is not freshly slaughtered or a vegan meat substitute product, characterised in that the de-esterified, activatable, pectin-converted fruit fibre: - is an activatable, de-esterified, pectin-converted citrus fibre which has a yield strength by means of a rotational measurement according to test method 2 in the 2.5 wt.% fibre suspension according to test method 9 of greater than 0.1 Pa to 1.0 Pa, and has a water-soluble pectin content of 10 to 35 wt.%, wherein the water-soluble pectin is a low-esterified pectin having a degree of esterification of less than 50%; or - is an activatable, de-esterified, pectin-converted apple fibre which has a yield strength by means of a rotational measurement according to test method 2 in the 2.5 wt.% fibre suspension according to test method 9 of greater than 0.1 Pa to 2.0 Pa, and has a water-soluble pectin content of 5 to 22 wt.%, wherein the water-soluble pectin is a low-esterified pectin having a degree of esterification of less than 50%. - is an activatable, de-esterified, pectin-converted citrus fibre which has a yield strength by means of a rotational measurement according to test method 2 in the 2.5 wt.% fibre suspension according to test method 9 of greater than 0.1 Pa to 1.0 Pa, and has a water-soluble pectin content of 10 to 35 wt.%, wherein the water-soluble pectin is a low-esterified pectin having a degree of esterification of less than 50%; or - is an activatable, de-esterified, pectin-converted apple fibre which has a yield strength by means of a rotational measurement according to test method 2 in the 2.5 wt.% fibre suspension according to test method 9 of greater than 0.1 Pa to 2.0 Pa, and has a water-soluble pectin content of 5 to 22 wt.%, wherein the water-soluble pectin is a low-esterified pectin having a degree of esterification of less than 50%.
Mixing rotor for mixing flowable building materials, based in particular on mortar or concrete mixtures, comprising a drive shaft designed to be coupled to a drive, in particular a drive chuck, and a mixing unit which is coupled to the drive shaft in terms of connection technology and has at least one mixing arm, the drive shaft being formed from a flat-profiled material portion and wherein the at least one mixing arm is connected to a shoulder formed at one end of the drive shaft, wherein the shoulder is formed integrally with the flat-profiled material section, characterized in that the shoulder protrudes at a narrow side of the flat-profiled material section, wherein the mixing arm is connected to the drive shaft via a material-locking connection formed at the shoulder.
Wind turbine comprising a wind rotor having at least one rotor blade, a generator driven thereby for producing electric power, a connecting line for delivering electric power to a network, a main controller which controls the operation of the wind turbine, and an intrinsic demand network for supplying electrically operated components of the wind turbine, characterized in that a component protection device is provided, which has a multi-channel network quality detector for detecting at least two parameter deviations in the intrinsic demand network with respect to normal values, in particular to voltage and frequency, a tolerance matrix unit and an operating matrix unit, which interact in such a way that respective tolerance limits for the parameter deviations are stored in the tolerance matrix unit for the individual components, and a blocking signal for the components is stored in the operating matrix unit on an individual component basis if the tolerance limit is exceeded, and in addition a switching device is provided, which interacts with the operating matrix unit in such a way that if at least one blocking signal for one of the components is present, this component is switched to a blocked state.
A semiochemical composition comprising between 1% to 8% (w%/w%) methyl laurate, between 1% to 8% (w%/w%) methyl myristate, between 10% to 18% (w%/w%) methyl palmitate, between 3% to 10% (w%/w%) methyl linoleate, between 40% to 55% (w%/w%) methyl oleate, between 1% to 8% (w%/w%) methyl stearate, between 5% to 15% (w%/w%) dimethyl pimelate, between 4% to 15% (w%/w%) dimethyl azelate, or salts thereof that maintain their semiochemical capabilities, or mixtures thereof.
A first LED driver circuit comprising: a first input interface for receiving an AC power input and providing a first output, wherein said first output is adapted to be connected to a second LED driver circuit; a first LED driver powered by the first output; a first shorting element for shorting the first output; a first control arrangement for controlling the first shorting element wherein the first control arrangement is adapted to - keep the first shorting element closed to short circuit the first LED driver, so as to pass the AC power input to the second LED driver circuit and to prevent the first LED driver from being powered by the AC power input, during a first subset of half cycles of the AC power input, - keep the first shorting element open to allow the AC power input to power the first LED driver during a second subset of half cycles, wherein said second subset of half cycles does not overlap with the first subset of half cycles; wherein the first subset of half cycles is the positive polarity phases of the AC power input and the second subset of half cycles is the negative polarity phases of the AC power input. a first input interface for receiving an AC power input and providing a first output, wherein said first output is adapted to be connected to a second LED driver circuit; a first LED driver powered by the first output; a first shorting element for shorting the first output; a first control arrangement for controlling the first shorting element wherein the first control arrangement is adapted to - keep the first shorting element closed to short circuit the first LED driver, so as to pass the AC power input to the second LED driver circuit and to prevent the first LED driver from being powered by the AC power input, during a first subset of half cycles of the AC power input, - keep the first shorting element open to allow the AC power input to power the first LED driver during a second subset of half cycles, wherein said second subset of half cycles does not overlap with the first subset of half cycles; - keep the first shorting element closed to short circuit the first LED driver, so as to pass the AC power input to the second LED driver circuit and to prevent the first LED driver from being powered by the AC power input, during a first subset of half cycles of the AC power input, - keep the first shorting element open to allow the AC power input to power the first LED driver during a second subset of half cycles, wherein said second subset of half cycles does not overlap with the first subset of half cycles; wherein the first subset of half cycles is the positive polarity phases of the AC power input and the second subset of half cycles is the negative polarity phases of the AC power input.
A character input method for an electronic device, the method comprising the following steps: step A, inputting an input text through the electronic device; step B, selecting a photography input procedure and starting a photographing device during text input; step C, taking a text image with the photographic device, wherein the display unit of the electronic device displays at least one preview box of the photographing device, and characters to be input are contained in the preview box; step D, recognizing text in the text image in the preview box and converting the text into a character text through an optical character recognition module; and step E, inputting the converted character text into the input text; wherein during text input, a user can select the photography input procedure once or more times to start a process of inputting characters through the steps B to E, and the characters from this process and other input methods form a single text for this user; the method being characterized in that in step C, a shape of the preview box is adjusted through a preview box adjusting module; wherein the preview box contains a character direction mark defining a character direction, wherein step C also includes a step of changing the character direction mark by the user through a mark modification unit; wherein in step D, the optical character recognition module recognizes the arrangement sequence of characters according to the character direction; wherein the display unit is a touch display unit, and wherein the preview box adjusting module sets the shape of the preview box according to a touch action. step A, inputting an input text through the electronic device; step B, selecting a photography input procedure and starting a photographing device during text input; step C, taking a text image with the photographic device, wherein the display unit of the electronic device displays at least one preview box of the photographing device, and characters to be input are contained in the preview box; step D, recognizing text in the text image in the preview box and converting the text into a character text through an optical character recognition module; and step E, inputting the converted character text into the input text; wherein during text input, a user can select the photography input procedure once or more times to start a process of inputting characters through the steps B to E, and the characters from this process and other input methods form a single text for this user; the method being characterized in that in step C, a shape of the preview box is adjusted through a preview box adjusting module; wherein the preview box contains a character direction mark defining a character direction, wherein step C also includes a step of changing the character direction mark by the user through a mark modification unit; wherein in step D, the optical character recognition module recognizes the arrangement sequence of characters according to the character direction; wherein the display unit is a touch display unit, and wherein the preview box adjusting module sets the shape of the preview box according to a touch action.
A method for capturing charging current curves (16a-c) for electric vehicles (8a-c) at charging stations (2a-c) comprising: - capturing of a charging current curve at a charging station (2a-c), - storing of the charging current curve together with a vehicle identification of the charging vehicle (8a-c), characterized in that - for each vehicle identification a charging current curve (16a-c) at a plurality of charging stations (2a-c) is stored, - a charging current curve characterizing the vehicle (8a-c) is calculated for each respective vehicle (8a-c) identification from the stored charging current curves at different charging stations (2a-c), wherein - the charging current curve characterizing the vehicle (8a-c) is calculated as an average value of the stored charging current curves (16a-c) for the vehicle identification, and - for the respective vehicle identification, a present charging current curve is compared with charging current curve characterizing the vehicle (8a-c) and in case of a derivation of the present charging current curve from the charging current curve characterizing the vehicle (8a-c) which is greater than a threshold, a signal is output. - capturing of a charging current curve at a charging station (2a-c), - storing of the charging current curve together with a vehicle identification of the charging vehicle (8a-c), characterized in that - for each vehicle identification a charging current curve (16a-c) at a plurality of charging stations (2a-c) is stored, - a charging current curve characterizing the vehicle (8a-c) is calculated for each respective vehicle (8a-c) identification from the stored charging current curves at different charging stations (2a-c), wherein - the charging current curve characterizing the vehicle (8a-c) is calculated as an average value of the stored charging current curves (16a-c) for the vehicle identification, and - for the respective vehicle identification, a present charging current curve is compared with charging current curve characterizing the vehicle (8a-c) and in case of a derivation of the present charging current curve from the charging current curve characterizing the vehicle (8a-c) which is greater than a threshold, a signal is output.