mhurhangee/ep-ind-claims huggingface dataset:
A method for providing an authorization indication, the method comprising: transmitting, via one or more processors, a request to be received by a radio frequency identification (RFID) tag within a read range, the RFID tag affixed to a vehicle; after transmitting the request to be received by the RFID tag within the read range, receiving, via the one or more processors, a response from the RFID tag, the response comprising a vehicle identifier that uniquely identifies the vehicle; determining, via the one or more processors, whether the vehicle is authorized to proceed and/or access an area, the determination based at least in part on the vehicle identifier; and after a determination that the vehicle is authorized to proceed and/or access the area, generating, via the one or more processors, an instruction to one or more indicators perceivable by the operator of the vehicle to initiate a perceivable indication to the operator of the vehicle that the vehicle is authorized to proceed and/or access the area, characterized in that a geofenced area is defined and the latitude and longitude coordinates thereof are stored in a database in association with the one or more processors, wherein the request is transmitted in response to a determination that the vehicle enters or exits the geofenced area, said determination that the vehicle enters or exits the geofenced area is made based on the stored latitude and longitude coordinates and an estimate of the location of the vehicle. transmitting, via one or more processors, a request to be received by a radio frequency identification (RFID) tag within a read range, the RFID tag affixed to a vehicle; after transmitting the request to be received by the RFID tag within the read range, receiving, via the one or more processors, a response from the RFID tag, the response comprising a vehicle identifier that uniquely identifies the vehicle; determining, via the one or more processors, whether the vehicle is authorized to proceed and/or access an area, the determination based at least in part on the vehicle identifier; and after a determination that the vehicle is authorized to proceed and/or access the area, generating, via the one or more processors, an instruction to one or more indicators perceivable by the operator of the vehicle to initiate a perceivable indication to the operator of the vehicle that the vehicle is authorized to proceed and/or access the area, characterized in that a geofenced area is defined and the latitude and longitude coordinates thereof are stored in a database in association with the one or more processors, wherein the request is transmitted in response to a determination that the vehicle enters or exits the geofenced area, said determination that the vehicle enters or exits the geofenced area is made based on the stored latitude and longitude coordinates and an estimate of the location of the vehicle.
Method for determining an absolute gas concentration, using a gas sensor arrangement comprising a gas sensor and means (11, 12) for decomposing a gas to be measured, the method comprising the steps of: - acquiring a first sensor signal and determining from the first sensor signal at least one initial data point, - decomposing the gas to be measured into chemical components using the means (11, 12) for decomposing the gas of the gas sensor arrangement, - acquiring a second sensor signal and determining from the second sensor signal a series of decay data points wherein the initial data point and the series of decay data points correspond to different sensor signals at different times during the decomposition of the gas to be measured, and - deriving an absolute gas concentration from a gas concentration function (R(t)) being a function of time by evaluating the gas concentration function (R(t)) at least for the initial data point and the series of decay data points; wherein: - the decomposition of the gas is monitored using the gas sensor and by determining the series of decay data points from the acquired sensor signals and - the gas concentration function (R(t)) is evaluated by fitting a decay function to a series of data points comprising the series of decay data points and the initial data point. - acquiring a first sensor signal and determining from the first sensor signal at least one initial data point, - decomposing the gas to be measured into chemical components using the means (11, 12) for decomposing the gas of the gas sensor arrangement, - acquiring a second sensor signal and determining from the second sensor signal a series of decay data points wherein the initial data point and the series of decay data points correspond to different sensor signals at different times during the decomposition of the gas to be measured, and - deriving an absolute gas concentration from a gas concentration function (R(t)) being a function of time by evaluating the gas concentration function (R(t)) at least for the initial data point and the series of decay data points; wherein: - the decomposition of the gas is monitored using the gas sensor and by determining the series of decay data points from the acquired sensor signals and - the gas concentration function (R(t)) is evaluated by fitting a decay function to a series of data points comprising the series of decay data points and the initial data point. - the decomposition of the gas is monitored using the gas sensor and by determining the series of decay data points from the acquired sensor signals and - the gas concentration function (R(t)) is evaluated by fitting a decay function to a series of data points comprising the series of decay data points and the initial data point.
A vehicle system comprising: • a fuel cell, • at least one container for the storage of ammonia precursor, and characterized in that it further comprises: • a first and second fuel generator, wherein the first and second fuel generators are configured to convert the ammonia precursor into fuel for use in the fuel cell, and wherein the first fuel generator is configured to carry out the ammonia precursor conversion within a lower temperature range than the second fuel generator. • a fuel cell, • at least one container for the storage of ammonia precursor, and • a first and second fuel generator, wherein the first and second fuel generators are configured to convert the ammonia precursor into fuel for use in the fuel cell, and wherein the first fuel generator is configured to carry out the ammonia precursor conversion within a lower temperature range than the second fuel generator.
A memory interface circuit (112, 122), comprising: a first variable impedance circuit, coupled between a first supply voltage and a pad; and a second variable impedance circuit, coupled between a second supply voltage and the pad; wherein when the first supply voltage changes, at least one of the first variable impedance circuit and the second variable impedance circuit is controlled to have different setting in response to the changing of the first supply voltage; and wherein the first variable impedance circuit comprises a plurality of first transistors (212_1-212_K) connected in parallel, and an impedance of the first variable impedance circuit is controlled by determining a quantity of turned-on first transistors (212_1-212_K); and further comprising: a pre-driver, coupled to the first variable impedance circuit, wherein the pre-driver receives a data signal, and selectively outputs the data signal to gate electrodes of the first transistors (212_1-212_K) according to at least a driving control signal, respectively, wherein the driving control signal indicates a number of the first transistors (212_1-212_K) receiving the data signal; characterized by: a programmable delay circuit, for delaying an original data signal to generate the data signal to the pre-driver; wherein when the first supply voltage changes, a delay amount of the programmable delay circuit changes in response to the changing of the first supply voltage. a first variable impedance circuit, coupled between a first supply voltage and a pad; and a second variable impedance circuit, coupled between a second supply voltage and the pad; wherein when the first supply voltage changes, at least one of the first variable impedance circuit and the second variable impedance circuit is controlled to have different setting in response to the changing of the first supply voltage; and wherein the first variable impedance circuit comprises a plurality of first transistors (212_1-212_K) connected in parallel, and an impedance of the first variable impedance circuit is controlled by determining a quantity of turned-on first transistors (212_1-212_K); and further comprising: a pre-driver, coupled to the first variable impedance circuit, wherein the pre-driver receives a data signal, and selectively outputs the data signal to gate electrodes of the first transistors (212_1-212_K) according to at least a driving control signal, respectively, wherein the driving control signal indicates a number of the first transistors (212_1-212_K) receiving the data signal; characterized by: a programmable delay circuit, for delaying an original data signal to generate the data signal to the pre-driver; wherein when the first supply voltage changes, a delay amount of the programmable delay circuit changes in response to the changing of the first supply voltage. a programmable delay circuit, for delaying an original data signal to generate the data signal to the pre-driver; wherein when the first supply voltage changes, a delay amount of the programmable delay circuit changes in response to the changing of the first supply voltage.
A heat source unit for a refrigeration apparatus having a refrigerant circuit, the heat source unit is configured to use CO 2 refrigerant and to exchange heat between the CO 2 refrigerant and another fluid, the heat source unit comprising: a compressor that is configured to perform multi-stage compression of two or more stages; a main heat exchanger (4, 45) that is configured to exchange heat between the refrigerant and the fluid; and a sub-heat exchanger (7, 46, 47) that is disposed independently from the main heat exchanger and that is configured to exchange heat between the refrigerant and the fluid, wherein the sub-heat exchanger is an intermediate heat exchanger that is configured to exchange heat between the refrigerant and the fluid after the compressor has performed first-stage compression and before the compressor performs final-stage compression, and wherein the intermediate heat exchanger is disposed on the upstream side of the main heat exchanger in the flow of the fluid; wherein the fluid is air, and, the heat source unit further comprising: a fan for moving the air to the main heat exchanger, and a housing that contains the compressor, the main heat exchanger, the fan, and the intermediate heat exchanger, and wherein the fan is configured to suck the air from a side of the housing and to blow out the air upward from a top of the housing; wherein the intermediate heat exchanger is disposed at a height above half the height of the main heat exchanger. a compressor that is configured to perform multi-stage compression of two or more stages; a main heat exchanger (4, 45) that is configured to exchange heat between the refrigerant and the fluid; and a sub-heat exchanger (7, 46, 47) that is disposed independently from the main heat exchanger and that is configured to exchange heat between the refrigerant and the fluid, wherein the sub-heat exchanger is an intermediate heat exchanger that is configured to exchange heat between the refrigerant and the fluid after the compressor has performed first-stage compression and before the compressor performs final-stage compression, and wherein the intermediate heat exchanger is disposed on the upstream side of the main heat exchanger in the flow of the fluid; wherein the fluid is air, and, the heat source unit further comprising: a fan for moving the air to the main heat exchanger, and a housing that contains the compressor, the main heat exchanger, the fan, and the intermediate heat exchanger, and a fan for moving the air to the main heat exchanger, and a housing that contains the compressor, the main heat exchanger, the fan, and the intermediate heat exchanger, and wherein the fan is configured to suck the air from a side of the housing and to blow out the air upward from a top of the housing; wherein the intermediate heat exchanger is disposed at a height above half the height of the main heat exchanger.
A magnetic stripe transmission, MST, device comprising: a driver; an inductor; a magnetic stripe reader, MSR, comprising a first magnetic read head, integrated with the MST; and a controller configured to directly drive the driver, wherein the MST device is configured to obtain magnetic stripe data from a payment card via an interface with an electronic device, to amplify and shape pulses containing the obtained magnetic stripe data in form of a series of magnetic pulses comprising the amplified and shaped pulses, and to emit the series of magnetic pulses; wherein the inductor is driven by a series of timed current pulses from the driver that result in the series of the magnetic pulses that resemble the fluctuating magnetic field created by a moving magnetic stripe when the payment card is swiped in front of a magnetic reader; wherein the emitted magnetic pulses are configured to be picked up remotely by a second magnetic read head that is comprised in a point of sale device and to be converted into electrical pulses; and wherein the first magnetic read head of the MST device is configured to read the magnetic stripe data from the payment card for storage in either a secure memory of the MST device or in a mobile wallet of the electronic device. a driver; an inductor; a magnetic stripe reader, MSR, comprising a first magnetic read head, integrated with the MST; and a controller configured to directly drive the driver, wherein the MST device is configured to obtain magnetic stripe data from a payment card via an interface with an electronic device, to amplify and shape pulses containing the obtained magnetic stripe data in form of a series of magnetic pulses comprising the amplified and shaped pulses, and to emit the series of magnetic pulses; wherein the inductor is driven by a series of timed current pulses from the driver that result in the series of the magnetic pulses that resemble the fluctuating magnetic field created by a moving magnetic stripe when the payment card is swiped in front of a magnetic reader; wherein the emitted magnetic pulses are configured to be picked up remotely by a second magnetic read head that is comprised in a point of sale device and to be converted into electrical pulses; and wherein the first magnetic read head of the MST device is configured to read the magnetic stripe data from the payment card for storage in either a secure memory of the MST device or in a mobile wallet of the electronic device.
One-piece healing element which comprises: - an implant part intended to be fixed to a dental implant, of which at least a lower part is oriented along a first axis, - a coronal part intended to be integrated into a gum in order to shape the gum as it heals, of which at least an upper part extends overall along a second axis, the coronal part having a terminal surface and a lateral surface, the terminal surface being intended to remain visible above a gum surface of the gum, the gum being intended to be wholly in contact with the lateral surface and which is such that the first axis and the second axis form a non-zero first angle (α). - an implant part intended to be fixed to a dental implant, of which at least a lower part is oriented along a first axis, - a coronal part intended to be integrated into a gum in order to shape the gum as it heals, of which at least an upper part extends overall along a second axis, the coronal part having a terminal surface and a lateral surface, the terminal surface being intended to remain visible above a gum surface of the gum, the gum being intended to be wholly in contact with the lateral surface
A high-throughput detection system comprising: (a) a magnetic field source (24, 25), (b) a magnetic sensor device and (c) a first reservoir plate actuator for positioning a reservoir plate with a plurality of fluid reservoirs into an operative relationship with the magnetic sensor device, wherein the magnetic field source (24, 25) is configured to apply a magnetic field to the magnetic sensor device, wherein the magnetic sensor device comprises a support with two or more elongated regions each having a magnetic sensor array comprising a magnetic sensor selected from the group consisting of a spin valve detector and a magnetic tunnel junction detector disposed at a distal end of the elongated region, wherein the magnetic sensor has an analyte-specific probe bound to a surface of the magnetic sensor; wherein the system is configured to position the two or more magnetic sensor arrays in sequential sets of the fluid reservoirs. (a) a magnetic field source (24, 25), (b) a magnetic sensor device and (c) a first reservoir plate actuator for positioning a reservoir plate with a plurality of fluid reservoirs into an operative relationship with the magnetic sensor device, wherein the magnetic sensor device comprises a support with two or more elongated regions each having a magnetic sensor array comprising a magnetic sensor selected from the group consisting of a spin valve detector and a magnetic tunnel junction detector disposed at a distal end of the elongated region, wherein the magnetic sensor has an analyte-specific probe bound to a surface of the magnetic sensor; wherein the system is configured to position the two or more magnetic sensor arrays in sequential sets of the fluid reservoirs.
An inkjet printer, comprising: color channels with each comprising a respective color, wherein six or fewer of the color channels are process color channels comprising process colors, wherein two or more of the color channels are spot color channels comprising spot colors, wherein the spot colors comprise at least spot yellow and spot black and wherein the spot colors contain higher stability pigments and/or UV stabilizers as compared to the pigments of corresponding process colors, and wherein the ratio of the number of spot color channels comprising spot colors to the number of process color channels comprising process colors is greater than 1:1. color channels with each comprising a respective color, wherein six or fewer of the color channels are process color channels comprising process colors, wherein two or more of the color channels are spot color channels comprising spot colors, wherein the spot colors comprise at least spot yellow and spot black and wherein the spot colors contain higher stability pigments and/or UV stabilizers as compared to the pigments of corresponding process colors, and wherein the ratio of the number of spot color channels comprising spot colors to the number of process color channels comprising process colors is greater than 1:1.
A method for treating a fuel system of a turbine engine, the method comprising: connecting a treatment system to the turbine engine; and characterised in that it further comprises; drawing preservation fluid out of the fuel system using the treatment system. connecting a treatment system to the turbine engine; and characterised in that it further comprises; drawing preservation fluid out of the fuel system using the treatment system.
Upper sealing tool which has a peripheral region and a recess, by way of which the upper film web is formed, wherein the recess has a certain depth and also a transition region and an inner region, wherein the transition region is located between the peripheral region and the inner region, characterized in that the transition region has a first and a second portion (24, 25), wherein one portion is provided in a convex state and the other portion is provided in a concave state, characterized in that the ratio of the depth of the recess to the radius of curvature of the portion, and also to the radius of curvature of the portion, is, at least in part, ≤ 2.5, preferably ≤ 2 and even more preferably ≤ 1.
A peptide comprising: (i) the sequence FEGIYRTDILRTEEGN, (ii) the sequence FEGIYRTELLKAEEAN, (iii) the sequence FEAIYRLEKLKAEEAN, (iv) the sequence FEGIYRLEKLKAEEANRR, or (v) a sequence of the formula FXGZZXZXZLXZEXXN where X is any amino acid residue and Z is a hydrophobic residue, the peptide having a stable, internally-constrained alpha-helix, wherein said alpha helix is constrained by a crosslink formed by a carbon-carbon bond-forming reaction, and further wherein the peptide mimics amino acids 929-944 of the αH helix of Sos, and wherein the peptide does not comprise the sequence FEGIYRLELLKAEEAN.
A pharmaceutical composition for use in the treatment or prevention of vitamin deficiencies and mineral deficiencies in a patient who has been subjected to gastric sleeve surgery comprising: - vitamin B12 or a source thereof; - iron or a source thereof; - a pharmaceutically acceptable carrier; and wherein the patient in need thereof is administered by means of said composition per day between 50 μg and 150 μg of vitamin B12, between 20 mg and 30 mg iron and less than 0,1 μg of vitamin K, and wherein a unit dose of the pharmaceutical composition comprises: - between 50 μg and 150 μg of vitamin B12; - between 20 mg and 30 mg iron; and - a pharmaceutically acceptable carrier; wherein the pharmaceutical composition is devoid of calcium and is devoid of magnesium. - vitamin B12 or a source thereof; - iron or a source thereof; - a pharmaceutically acceptable carrier; and wherein a unit dose of the pharmaceutical composition comprises: - between 50 μg and 150 μg of vitamin B12; - between 20 mg and 30 mg iron; and - a pharmaceutically acceptable carrier; - between 50 μg and 150 μg of vitamin B12; - between 20 mg and 30 mg iron; and - a pharmaceutically acceptable carrier; wherein the pharmaceutical composition is devoid of calcium and is devoid of magnesium.
Vascular endothelial growth factor receptor 2 and/or 3 (VEGFR2/3) activating agent for use in the treatment of an age- and/or disease-related cognitive dysfunction, wherein the activating agent is a peptide comprising at least one of the amino acids sequences shown in SEQ ID NO: 9 to 14.
An assembly method for assembling a hollow wall, said method comprising steps consisting in: a) positioning a conduit (30; 80) for running conductive elements relative to a frame of the hollow wall, in such a manner that a side flange of said conduit (30; 80) extends transversally to the rear face of a panel of said hollow wall; b) piercing an opening through said panel; and c) accessing said conduit (30; 80) through said opening so as to open a window (35; 85) locally, the method being characterized in that said window is in said side flange. a) positioning a conduit (30; 80) for running conductive elements relative to a frame of the hollow wall, in such a manner that a side flange of said conduit (30; 80) extends transversally to the rear face of a panel of said hollow wall; b) piercing an opening through said panel; and c) accessing said conduit (30; 80) through said opening so as to open a window (35; 85) locally, the method being characterized in that said window is in said side flange.
A shaped cross-linked hyaluronic acid product having a degree of modification of 1-40 cross-linking agent units per 1000 disaccharide units, a swelling degree of 4-300 mL per g hyaluronic acid, and a modification efficiency of 10 or higher, wherein the product is a string with a length to width ratio of at least 10:1, wherein the cross-linking agents are polyfunctional cross-linking agents, wherein all parameters are determined by the methods disclosed in the description.