mhurhangee/ep-ind-claims huggingface dataset:
A glucose meter for decoding information encoded in a pattern (612,614) provided in a consumable glucose meter test strip, the glucose meter comprising: a plurality of electrodes (406,602), each electrode arranged to establish an electric field; capacitive sensing circuitry for detecting change in capacitance in at least a subset of the electrodes caused by the pattern when the pattern provided in the consumable glucose meter test strip is positioned over the plurality of electrodes (406,602), wherein the pattern comprises a spatial arrangement of one or more openings through a conductive material of the consumable glucose meter test strip and one or more regions of the conductive material of the consumable glucose meter test strip without an opening; and a decoder (302,304,306,308,310,312,314,316) for deriving the information encoded in the pattern based on the detected change in capacitance, wherein the information encoded in the pattern identifies a particular batch of consumable glucose meter test strips. a plurality of electrodes (406,602), each electrode arranged to establish an electric field; capacitive sensing circuitry for detecting change in capacitance in at least a subset of the electrodes caused by the pattern when the pattern provided in the consumable glucose meter test strip is positioned over the plurality of electrodes (406,602), wherein the pattern comprises a spatial arrangement of one or more openings through a conductive material of the consumable glucose meter test strip and one or more regions of the conductive material of the consumable glucose meter test strip without an opening; and a decoder (302,304,306,308,310,312,314,316) for deriving the information encoded in the pattern based on the detected change in capacitance, wherein the information encoded in the pattern identifies a particular batch of consumable glucose meter test strips.
Method for identifying an earth fault in an electrical energy supply network having a compensated star point, in which - measurement values are detected at at least one measurement point of the energy supply network, which measurement values characterize a state of the energy supply network; - a zero phase-sequence system voltage and an admittance quantity are ascertained from the measurement values; and - the zero phase-sequence system voltage and the admittance quantity are used to identify the earth fault in the energy supply network; characterized in that - in the presence of measurement values that suggest an earth fault in the energy supply network, the star point of the energy supply network is temporarily connected to earth through connection of an earthing device; and - an earth fault in the energy supply network is identified when, while the earthing device is connected, both the zero phase-sequence system voltage exceeds a prescribed zero phase-sequence system voltage threshold value and the admittance quantity exceeds a prescribed admittance threshold value, wherein - the connection of the earthing device causes a reduction in the zero phase-sequence system voltage threshold value. - measurement values are detected at at least one measurement point of the energy supply network, which measurement values characterize a state of the energy supply network; - a zero phase-sequence system voltage and an admittance quantity are ascertained from the measurement values; and - the zero phase-sequence system voltage and the admittance quantity are used to identify the earth fault in the energy supply network; - in the presence of measurement values that suggest an earth fault in the energy supply network, the star point of the energy supply network is temporarily connected to earth through connection of an earthing device; and - an earth fault in the energy supply network is identified when, while the earthing device is connected, both the zero phase-sequence system voltage exceeds a prescribed zero phase-sequence system voltage threshold value and the admittance quantity exceeds a prescribed admittance threshold value, wherein - the connection of the earthing device causes a reduction in the zero phase-sequence system voltage threshold value.
A tobacco pouch having a front panel and a back panel, which are connected with each other via a first folding line, the pouch having two chambers (20, 21) each chamber having a strip-shaped, openable closure, forming a first and second closure (9, 12), sealing an opening to the respective chamber, characterized in that front panel and back panel are folded against each other by a lateral folding line defining a lateral edge of the pouch, the front panel and the back panel are connected to each other by first connecting means at a second lateral edge of the pouch and via second connecting means at the lower edge of the pouch, and the at least one strip-shaped second closure is located in between the strip-shaped, openable first closure and the second connecting means and running from the first folding line up to the first connecting means, dividing the inside of the tobacco pouch into at least two chambers (20, 21), the strip-shaped, openable first closure running along an upper edge from the first folding line to the first connection means.
An area efficient amplifier, comprising: a first oscillator having an input and a plurality of N outputs (110[1:N]) having a respective plurality of N output phases; a second oscillator having an input and a plurality of N outputs (112[1:N]) having a respective of N output phases; a plurality of N phase detectors (114[1:N]), each phase detector has a first input, a second input, a first output (116[1:N]), and a second output (118[1:N]), wherein each first input of each phase detector is coupled to respective one of the plurality of N outputs of the first oscillator, wherein each second input of each phase detector is coupled to respective one of the plurality of N outputs of the second oscillator, wherein each phase detector is arranged to compare the output phases at the respective first and second inputs against each other, wherein the first output and the second output of each phase detector are continuous-time pulse-width modulated signals; and a plurality of N quantizers, each quantizer has a data input, a clock input, and an output, wherein each data input of each quantizer is coupled to respective one first output of the plurality of N phase detectors or one second output of the plurality of N phase detectors, wherein the amplifier amplifies a continuous-time continuous-amplitude signal and converts the continuous-time continuous-amplitude signal to a discrete-time discrete-amplitude signal. a first oscillator having an input and a plurality of N outputs (110[1:N]) having a respective plurality of N output phases; a second oscillator having an input and a plurality of N outputs (112[1:N]) having a respective of N output phases; a plurality of N phase detectors (114[1:N]), each phase detector has a first input, a second input, a first output (116[1:N]), and a second output (118[1:N]), wherein each first input of each phase detector is coupled to respective one of the plurality of N outputs of the first oscillator, wherein each second input of each phase detector is coupled to respective one of the plurality of N outputs of the second oscillator, wherein each phase detector is arranged to compare the output phases at the respective first and second inputs against each other, wherein the first output and the second output of each phase detector are continuous-time pulse-width modulated signals; and a plurality of N quantizers, each quantizer has a data input, a clock input, and an output, wherein each data input of each quantizer is coupled to respective one first output of the plurality of N phase detectors or one second output of the plurality of N phase detectors, wherein the amplifier amplifies a continuous-time continuous-amplitude signal and converts the continuous-time continuous-amplitude signal to a discrete-time discrete-amplitude signal.
A heating ventilating and air conditioning HVAC system for an operator cab of a work vehicle, the HVAC system including: a first fan having an inlet and an outlet, the first fan inlet being in communication with an interior of the operator cab; a second fan having an inlet and an outlet, the second fan inlet being in communication with an exterior ambient environment; a fresh air filter positioned in communication with the inlet of the second fan; the HVAC system further comprising: an air duct arrangement in communication with the first fan outlet and the second fan outlet; and at least one air flow diverter (66A, 66B) positioned within the air duct arrangement for selectively diverting air flowing through the air duct arrangement; and wherein in a fresh air filter regeneration mode the at least one air flow diverter (66A, 66B) closes the air duct arrangement, the first fan is activated, and the second fan is deactivated, characterised in that, the discharge air from the first fan flows through the second fan in a reverse direction and flows through the fresh air filter. a first fan having an inlet and an outlet, the first fan inlet being in communication with an interior of the operator cab; a second fan having an inlet and an outlet, the second fan inlet being in communication with an exterior ambient environment; a fresh air filter positioned in communication with the inlet of the second fan; the HVAC system further comprising: an air duct arrangement in communication with the first fan outlet and the second fan outlet; and at least one air flow diverter (66A, 66B) positioned within the air duct arrangement for selectively diverting air flowing through the air duct arrangement; and wherein in a fresh air filter regeneration mode the at least one air flow diverter (66A, 66B) closes the air duct arrangement, the first fan is activated, and the second fan is deactivated, characterised in that, the discharge air from the first fan flows through the second fan in a reverse direction and flows through the fresh air filter. an air duct arrangement in communication with the first fan outlet and the second fan outlet; and at least one air flow diverter (66A, 66B) positioned within the air duct arrangement for selectively diverting air flowing through the air duct arrangement; and wherein in a fresh air filter regeneration mode the at least one air flow diverter (66A, 66B) closes the air duct arrangement, the first fan is activated, and the second fan is deactivated, characterised in that, the discharge air from the first fan flows through the second fan in a reverse direction and flows through the fresh air filter.
A circuit, comprising: - a power supply oscillator couplable to one side of a galvanic barrier to supply thereto an electric supply signal, the power supply oscillator configured to be alternatively turned on and off as a function of a PWM drive signal (PWM A) applied thereto, - a receiver circuit block configured to be coupled to said one side of the galvanic barrier to receive therefrom a PWM power control signal (PWM B), - a signal reconstruction network (26, 28, 30) between the receiver circuit block and the power supply oscillator, the signal reconstruction network (26, 28, 30) configured to provide to the power supply oscillator the PWM drive signal (PWM A) reconstructed from the PWM power control signal (PWM B), wherein the signal reconstruction network (26, 28, 30) comprises a PLL circuit block coupled to the receiver circuit block and configured to lock to the PWM control signal (ck SAMPLE) from the receiver circuit block, the PLL circuit block comprising a PLL loop (260, 262, 264, 266) sensitive to the PWM drive signal (PWM A) applied to the power supply oscillator, the PLL loop (262, 264, 266) configured to be opened as a result of the power supply oscillator being turned off, wherein the PLL loop (260, 262, 264, 266) comprises a switch switchable, under the control of the PWM drive signal (PWM A) applied to the power supply oscillator, between a first, conductive state wherein the PLL loop is active and a second, non-conductive state wherein the PLL loop is inactive. - a power supply oscillator couplable to one side of a galvanic barrier to supply thereto an electric supply signal, the power supply oscillator configured to be alternatively turned on and off as a function of a PWM drive signal (PWM A) applied thereto, - a receiver circuit block configured to be coupled to said one side of the galvanic barrier to receive therefrom a PWM power control signal (PWM B), - a signal reconstruction network (26, 28, 30) between the receiver circuit block and the power supply oscillator, the signal reconstruction network (26, 28, 30) configured to provide to the power supply oscillator the PWM drive signal (PWM A) reconstructed from the PWM power control signal (PWM B),
Container for transporting fresh foodstuffs, in particular fish, consisting of a base part and side walls projecting up from this base part, wherein the top edge of the side walls is shaped outwards, wherein an insert for receiving the goods to be transported is provided in the container interior and the container is able to be closed by means of a lid, characterized in that the bearing surface of the insert is embodied in a domed manner and the curvature of the dome is directed towards the container opening and the domed part of the insert is surrounded by a recessed channel with openings arranged therein, and a laterally upwardly directed peripheral region, the outer edge of which bears against the inner side of the side walls of the container, extends from the channel, and the insert is surrounded by an encircling, downwardly directed, skirt-like wall.
A method of operating a mobile device, wherein: - a temperature sensor comprised in said mobile device measures, at a first time instant, an initial temperature value, T 0; - the temperature sensor measures, at a second time instant, t, a current temperature value, T sensor; - a processing unit comprised in said mobile device calculates an ambient temperature, T A, around the mobile device, characterized in that the ambient temperature, T A, is calculated in dependence on the initial temperature value, T 0, the current temperature value, T sensor, a first constant ratio, α, reflecting the contributions of a thermal influence of a sensor package which includes the temperature sensor on the current temperature value, T sensor, a second constant ratio, β, wherein α = 1 - β, reflecting the contributions of a thermal influence of a printed circuit board on which the sensor package is mounted on the current temperature value, T sensor, a first constant, k 1, indicative of the thermodynamic properties of the sensor package, a second constant, k 2, indicative of the thermodynamic properties of the printed circuit board, by deriving the ambient temperature, T A, from the following equation: Tsensor = α T A − T A − T 0 e − k 1 t + β T A − T A − T 0 e − k 2 t - a temperature sensor comprised in said mobile device measures, at a first time instant, an initial temperature value, T 0; - the temperature sensor measures, at a second time instant, t, a current temperature value, T sensor; - a processing unit comprised in said mobile device calculates an ambient temperature, T A, around the mobile device,
An x-ray weld inspection apparatus comprising: - at least one x-ray source attached on a first mounting; - at least one x-ray detector attached on a second mounting; - a motor arrangement configured to move, using the first and second mountings (100a, 100c), respectively, the at least one x-ray source and the at least one x-ray detector substantially along a weld, the weld being a pipeline weld; and - a control device comprising memory and at least one processing core, configured to: ▪ control the motor arrangement to move the at least one x-ray source and the at least one x-ray detector during an x-ray weld scan substantially along the direction of the weld; ▪ wherein at least one section of the weld is imaged at least twice during a single x-ray scan by moving at least one of the at least one x-ray detector in an oscillating movement substantially along the direction of the weld, the oscillating movement superimposed on movement of the at least one x-ray detector substantially along the direction of the weld during the scan of the weld, producing at least two imaging data sets, respectively, and ▪ wherein an angle of incidence of x-rays at the at least one section of the weld is different for the imaging data sets. - at least one x-ray source attached on a first mounting; - at least one x-ray detector attached on a second mounting; - a motor arrangement configured to move, using the first and second mountings (100a, 100c), respectively, the at least one x-ray source and the at least one x-ray detector substantially along a weld, the weld being a pipeline weld; and - a control device comprising memory and at least one processing core, configured to: ▪ control the motor arrangement to move the at least one x-ray source and the at least one x-ray detector during an x-ray weld scan substantially along the direction of the weld; ▪ wherein at least one section of the weld is imaged at least twice during a single x-ray scan by moving at least one of the at least one x-ray detector in an oscillating movement substantially along the direction of the weld, the oscillating movement superimposed on movement of the at least one x-ray detector substantially along the direction of the weld during the scan of the weld, producing at least two imaging data sets, respectively, and ▪ wherein an angle of incidence of x-rays at the at least one section of the weld is different for the imaging data sets. ▪ control the motor arrangement to move the at least one x-ray source and the at least one x-ray detector during an x-ray weld scan substantially along the direction of the weld; ▪ wherein at least one section of the weld is imaged at least twice during a single x-ray scan by moving at least one of the at least one x-ray detector in an oscillating movement substantially along the direction of the weld, the oscillating movement superimposed on movement of the at least one x-ray detector substantially along the direction of the weld during the scan of the weld, producing at least two imaging data sets, respectively, and ▪ wherein an angle of incidence of x-rays at the at least one section of the weld is different for the imaging data sets.
A method of preparing a tomato juice-containing alcoholic drink, which contains a lactic-fermented tomato liquid and a clear tomato juice, and has a tomato juice content of 1 %(w/w) or more and an alcohol content of 1 to 25% and wherein the method comprises mixing the lactic-fermented tomato liquid and the clear tomato juice, wherein the weight ratio is: =1:3 to 3:1 in the state of being reconstituted to give the same sugar content, which means the content of each raw material and is converted into the amount at which a definite sugar content is obtained. a lactic-fermented tomato liquid and a clear tomato juice, and
A method of regaining an original Card Security Code, CSC, from a temporary CSC used in a card based transaction, wherein the method is performed by a server system having one or several computer servers and the method comprising: obtaining a temporary CSC, wherein the temporary CSC has been generated by previously applying a minimal perfect hash function to an original CSC as well as a first data seed, the first data seed including a mobile terminal identifier of a mobile terminal and a time stamp generated by said mobile terminal; and obtaining a second data seed, the second data seed being a same data seed as the first data seed and including the same mobile terminal identifier and the same time stamp as the first data seed, wherein at least said mobile terminal identifier has been stored in advance at the server system such that obtaining the second data seed comprises obtaining the mobile terminal identifier locally from the server system; applying a same minimal perfect hash function to the obtained second data seed together with each one of several CSCs from a stored list of available CSCs until a match is found between the obtained temporary CSC and one CSC from the stored list of available CSCs; and in response to a match having been found: continuing an initiated card based transaction obtaining a temporary CSC, wherein the temporary CSC has been generated by previously applying a minimal perfect hash function to an original CSC as well as a first data seed, the first data seed including a mobile terminal identifier of a mobile terminal and a time stamp generated by said mobile terminal; and obtaining a second data seed, the second data seed being a same data seed as the first data seed and including the same mobile terminal identifier and the same time stamp as the first data seed, wherein at least said mobile terminal identifier has been stored in advance at the server system such that obtaining the second data seed comprises obtaining the mobile terminal identifier locally from the server system; applying a same minimal perfect hash function to the obtained second data seed together with each one of several CSCs from a stored list of available CSCs until a match is found between the obtained temporary CSC and one CSC from the stored list of available CSCs; and in response to a match having been found: continuing an initiated card based transaction
A reduced-pressure interface for providing reduced pressure through a sealing member to a distribution manifold, the reduced-pressure interface comprising: a housing (158, 258) having a flange portion (160, 260) and a cavity wall portion (162, 262); wherein the cavity wall portion (162, 262) forms a cavity (164, 264) having a tissue-facing cavity opening; a conduit port coupled to the cavity wall (162, 262) and having a conduit aperture (170, 292), wherein the conduit port is adapted to receive a reduced-pressure delivery conduit; an attachment device coupled to a tissue-facing side of the flange portion (160, 260) of the housing (158. 258), the attachment device for coupling the housing (158, 258) to a sealing member; and a cutting element (118, 218) coupled to the housing (158, 258) proximate to the tissue-facing cavity opening, the cutting element (118, 218) configured to form an aperture in a sealing member to which the housing is attached by the attachment device when the cutting element (118, 218) is driven into the sealing member with a driving force, characterised in that the housing (158, 258) is made of a semi-rigid material that is capable of collapsing under a driving force (174, 274), the housing (158, 258) thereby driving the cutting element (118, 218) into the sealing member to which the housing is attached by the attachment device. a housing (158, 258) having a flange portion (160, 260) and a cavity wall portion (162, 262); wherein the cavity wall portion (162, 262) forms a cavity (164, 264) having a tissue-facing cavity opening; a conduit port coupled to the cavity wall (162, 262) and having a conduit aperture (170, 292), wherein the conduit port is adapted to receive a reduced-pressure delivery conduit; an attachment device coupled to a tissue-facing side of the flange portion (160, 260) of the housing (158. 258), the attachment device for coupling the housing (158, 258) to a sealing member; and a cutting element (118, 218) coupled to the housing (158, 258) proximate to the tissue-facing cavity opening, the cutting element (118, 218) configured to form an aperture in a sealing member to which the housing is attached by the attachment device when the cutting element (118, 218) is driven into the sealing member with a driving force, characterised in that the housing (158, 258) is made of a semi-rigid material that is capable of collapsing under a driving force (174, 274), the housing (158, 258) thereby driving the cutting element (118, 218) into the sealing member to which the housing is attached by the attachment device.