mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of calculating an analyte level in a first medium using one or more measurements of an analyte level in a second medium, the method comprising: receiving first sensor data from an analyte sensor; calculating a first analyte level in the second medium using at least the first sensor data; calculating a first analyte level rate of change using at least the first analyte level in the second medium; calculating a first analyte level in the first medium using at least the first analyte level in the second medium, the first analyte level rate of change, and lag parameters including an analyte diffusion rate and an analyte consumption rate; determining that the lag parameters should be updated; updating the lag parameters; receiving second sensor data from the analyte sensor; calculating a second analyte level in the second medium using at least the second sensor data; calculating a second analyte level rate of change using at least the second analyte level in the second medium; and calculating a second analyte level in the first medium using at least the second analyte level in the second medium, the second analyte level rate of change, and the updated lag parameters. receiving first sensor data from an analyte sensor; calculating a first analyte level in the second medium using at least the first sensor data; calculating a first analyte level rate of change using at least the first analyte level in the second medium; calculating a first analyte level in the first medium using at least the first analyte level in the second medium, the first analyte level rate of change, and lag parameters including an analyte diffusion rate and an analyte consumption rate; determining that the lag parameters should be updated; updating the lag parameters; receiving second sensor data from the analyte sensor; calculating a second analyte level in the second medium using at least the second sensor data; calculating a second analyte level rate of change using at least the second analyte level in the second medium; and calculating a second analyte level in the first medium using at least the second analyte level in the second medium, the second analyte level rate of change, and the updated lag parameters.
An electronic device (100, 200), comprising: a communicator (110, 210); a storage (120, 220) configured to store a channel map including a channel name,, and a channel number corresponding to the channel name; and a processor (130, 230) configured to: obtain a first keyword from a first voice command received through the communicator, based on a channel name corresponding to the keyword being not identified in the channel map, store the keyword as a first keyword, obtain a second keyword from a second voice command received through the communicator, the second voice command being received within a predetermined time from a time when the first voice command is received, and based on a channel name corresponding to the second keyword being identified in the channel map, select a channel number corresponding to the identified channel name and add the first keyword to the channel map as a pseudo channel name for the selected channel number. a communicator (110, 210); a storage (120, 220) configured to store a channel map including a channel name,, and a channel number corresponding to the channel name; and a processor (130, 230) configured to: obtain a first keyword from a first voice command received through the communicator, based on a channel name corresponding to the keyword being not identified in the channel map, store the keyword as a first keyword, obtain a second keyword from a second voice command received through the communicator, the second voice command being received within a predetermined time from a time when the first voice command is received, and based on a channel name corresponding to the second keyword being identified in the channel map, select a channel number corresponding to the identified channel name and add the first keyword to the channel map as a pseudo channel name for the selected channel number. obtain a first keyword from a first voice command received through the communicator, based on a channel name corresponding to the keyword being not identified in the channel map, store the keyword as a first keyword, obtain a second keyword from a second voice command received through the communicator, the second voice command being received within a predetermined time from a time when the first voice command is received, and based on a channel name corresponding to the second keyword being identified in the channel map, select a channel number corresponding to the identified channel name and add the first keyword to the channel map as a pseudo channel name for the selected channel number.
A method for preparing a porous metal implant comprising: a. preparing a mixture comprising: i. a biocompatible metal powder; ii. a spacing agent selected from the group consisting of hydrogen peroxide, urea, ammonium carbonate, ammonium bicarbonate, ammonium carbamate, calcium hydrogen phosphate, naphthalene, and mixtures thereof; and iii. a non-polar liquid binder comprising d-limonene; b. forming the mixture into a shape; and c. thermal cycling the mixture within a single heating unit to remove the nonpolar liquid binder and the spacing agent and sintering the metal powder to form a plurality of pores within the metal implant. a. preparing a mixture comprising: i. a biocompatible metal powder; ii. a spacing agent selected from the group consisting of hydrogen peroxide, urea, ammonium carbonate, ammonium bicarbonate, ammonium carbamate, calcium hydrogen phosphate, naphthalene, and mixtures thereof; and iii. a non-polar liquid binder comprising d-limonene; i. a biocompatible metal powder; ii. a spacing agent selected from the group consisting of hydrogen peroxide, urea, ammonium carbonate, ammonium bicarbonate, ammonium carbamate, calcium hydrogen phosphate, naphthalene, and mixtures thereof; and iii. a non-polar liquid binder comprising d-limonene; b. forming the mixture into a shape; and c. thermal cycling the mixture within a single heating unit to remove the nonpolar liquid binder and the spacing agent and sintering the metal powder to form a plurality of pores within the metal implant.
Fixing arrangement (1, 1', 1") for fixing a sanitaryware item made of ceramics, having a main body (5, 5', 5") which has a receiving channel extending along a longitudinal axis, and having an especially rod-shaped adapter element (4, 4', 4") with a threaded bore for screwing onto a threaded rod, wherein the adapter element (4, 4', 4") is arranged to be inserted into the receiving channel in an insertion direction, and having a holding element, especially a screw, for interlockingly holding the adapter element (4, 4', 4") in the receiving channel, the holding element being arranged in the main body especially so as to be displaceable transversely with respect to the longitudinal axis, wherein a snap-in element (31, 31', 31") is arranged on the main body, characterised in that the adapter element (4, 4', 4") has an undercut element (14, 14', 14"), the snap-in element (31, 31', 31") automatically engaging in the undercut element (14, 14', 14") of the adapter element (4, 4', 4") when the adapter element (4, 4', 4") is inserted.
Electrical unit for a rail-bound vehicle having an electromechanical assembly with electrical or electromechanical components, wherein the electromechanical assembly has a housing which accommodates at least the electrical or electromechanical components, characterized by a universal mechanical interface attached to the housing, which interface can be placed on a substructure of the rail-bound vehicle, which has a framework structure, and is configured separately and to be separable from the housing, wherein the housing is configured to be separate from the substructure, wherein at least one damper is provided at the mechanical interface, wherein the damper provides damping between the housing and the mechanical interface or is suitable for damping between the mechanical interface and the substructure of the rail-bound vehicle, wherein the mechanical interface has at least one profile rail which is in contact with the at least one damper and wherein the electromechanical assembly and the mechanical interface are screwed or riveted together via the damper. a universal mechanical interface attached to the housing, which interface can be placed on a substructure of the rail-bound vehicle, which has a framework structure, and is configured separately and to be separable from the housing, wherein the housing is configured to be separate from the substructure, wherein at least one damper is provided at the mechanical interface, wherein the damper provides damping between the housing and the mechanical interface or is suitable for damping between the mechanical interface and the substructure of the rail-bound vehicle, wherein the mechanical interface has at least one profile rail which is in contact with the at least one damper and wherein the electromechanical assembly and the mechanical interface are screwed or riveted together via the damper.
A method of purifying water and/or recovering of metal ions from water comprising: applying a voltage to an electrolytic cell comprising a cathode with a first conducting component, an anode with a second conducting component selected from the group consisting of cobalt, copper, iron, nickel, platinum, iridium, ruthenium, rhodium, and mixtures thereof and alloys thereof, and an alkaline electrolyte composition in electrical communication with the anode and the cathode, wherein the alkaline electrolyte composition has a pH value of about 11 or less and wherein the alkaline electrolyte composition comprises at least one metal ion to be reduced, and a sacrificial reductant selected from the group consisting of urea, ammonia, ethanol, methanol, and a combination thereof, wherein the voltage is applied across the cathode and the anode to reduce the at least one metal ion to form at least one elemental metal species at the cathode, and to oxidize the sacrificial reductant at the anode, less than about 20 % of the voltage is spent generating hydrogen at the cathode and/or oxygen at the anode, and wherein the voltage difference is a single cell voltage with a value of about 1.1 volts or less. applying a voltage to an electrolytic cell comprising a cathode with a first conducting component, an anode with a second conducting component selected from the group consisting of cobalt, copper, iron, nickel, platinum, iridium, ruthenium, rhodium, and mixtures thereof and alloys thereof, and an alkaline electrolyte composition in electrical communication with the anode and the cathode, wherein the alkaline electrolyte composition has a pH value of about 11 or less and wherein the alkaline electrolyte composition comprises at least one metal ion to be reduced, and a sacrificial reductant selected from the group consisting of urea, ammonia, ethanol, methanol, and a combination thereof, wherein the voltage is applied across the cathode and the anode to reduce the at least one metal ion to form at least one elemental metal species at the cathode, and to oxidize the sacrificial reductant at the anode, less than about 20 % of the voltage is spent generating hydrogen at the cathode and/or oxygen at the anode, and wherein the voltage difference is a single cell voltage with a value of about 1.1 volts or less. a cathode with a first conducting component, an anode with a second conducting component selected from the group consisting of cobalt, copper, iron, nickel, platinum, iridium, ruthenium, rhodium, and mixtures thereof and alloys thereof, and an alkaline electrolyte composition in electrical communication with the anode and the cathode, wherein the alkaline electrolyte composition has a pH value of about 11 or less and wherein the alkaline electrolyte composition comprises at least one metal ion to be reduced, and a sacrificial reductant selected from the group consisting of urea, ammonia, ethanol, methanol, and a combination thereof,
A copper alloy foil comprising: copper matrix phases; and composite phases comprising copper-zirconium compound phases and copper phases; wherein the zirconium content of alloy composition is 3.0 to 7.0 atomic percent; and the composite phases contain 5% to 25% of amorphous phases in terms of area fraction as viewed in a cross-section perpendicular to the width direction. copper matrix phases; and composite phases comprising copper-zirconium compound phases and copper phases; wherein the zirconium content of alloy composition is 3.0 to 7.0 atomic percent; and the composite phases contain 5% to 25% of amorphous phases in terms of area fraction as viewed in a cross-section perpendicular to the width direction.
Punching apparatus comprising a plurality of punching tools and a plurality of actuators positioned above and aligned with the respective punching tools to actuate the latter ones along an operating direction so as to interact with a piece to be worked, said punching tools and said actuators being arranged side by side along at least one row, said punching apparatus being characterized in that it comprises at least one barrier optical sensor, suitable to generate a light beam that is put side by side to said row of punching tools and actuators, and a plurality of reference elements each of which being associated to a respective punching tool and/or actuator to intercept said light beam, said barrier optical sensor being arranged to detect changes in said light beam produced by one of said reference elements moving along said operating direction so as to measure a position and/or a stroke and/or a speed of a punching tool associated with said reference element.
A method for producing Xenon-133 comprising: collecting an off gas from a Molybdenum-99 production process in a storage tank, the off gas including Xenon-133 and Krypton-85; selectively adsorbing Xenon-133 from the off gas onto a charcoal column assembly such that Xenon-133 is selectively adsorbed onto the charcoal column assembly relative to Krypton-85; desorbing the Xenon-133 from the charcoal column assembly by heating the charcoal column assembly; and condensing the Xenon-133 within a coil assembly. collecting an off gas from a Molybdenum-99 production process in a storage tank, the off gas including Xenon-133 and Krypton-85; selectively adsorbing Xenon-133 from the off gas onto a charcoal column assembly such that Xenon-133 is selectively adsorbed onto the charcoal column assembly relative to Krypton-85; desorbing the Xenon-133 from the charcoal column assembly by heating the charcoal column assembly; and condensing the Xenon-133 within a coil assembly.
A crown device adapted to be arranged in a vehicle comprising a steering device rotatable about a steering axis for adjusting the direction of the part(s) of the vehicle arranged for contacting ground, said device comprising: - a steering damper having a damping housing (4a, 4a", 104a) that encloses a main damping chamber which comprises hydraulic fluid and is partitioned into a first damping chamber and a second damping chamber by a delimiting part (11, 11', 11", 111) that is arranged in the main damping chamber and moveable with respect to the damping housing (4a, 4a", 104a); - an attaching part (5, 5') adapted to couple together the part(s) arranged for contacting ground with the steering device when the crown device is arranged in the vehicle, wherein the attaching part (5, 5') is arranged to rotate with the steering device when the crown device is arranged in the vehicle; and a main valve unit adapted to adjust a flow of hydraulic fluid (Q1, Q2) between the damping chambers (C1, C2) of the steering damper when the crown device is arranged in the vehicle, said main valve unit being coupled together with both the attaching part (5, 5') and the steering device when the crown device is arranged in the vehicle such as to adjust the rotational damping of the steering device, characterized in that the amount of hydraulic fluid flowing through the main valve unit is determined by a relative movement between said attaching part (5, 5') and the steering device. - a steering damper having a damping housing (4a, 4a", 104a) that encloses a main damping chamber which comprises hydraulic fluid and is partitioned into a first damping chamber and a second damping chamber by a delimiting part (11, 11', 11", 111) that is arranged in the main damping chamber and moveable with respect to the damping housing (4a, 4a", 104a); - an attaching part (5, 5') adapted to couple together the part(s) arranged for contacting ground with the steering device when the crown device is arranged in the vehicle, wherein the attaching part (5, 5') is arranged to rotate with the steering device when the crown device is arranged in the vehicle; and
A method for distilling magic states in a quantum computing device, comprising: in the quantum computing device: applying an inner code comprising a weakly self-dual error correcting code to implement control-Swap operations on a plurality of qubits or qudits wherein a distance of the code scales proportional to the number of logical qubits or qudits; using the control-Swap operations to suppress measurement errors of the magic states on the plurality of qubits or qudits; and applying an outer code comprising an error-correcting code with a sensitivity selected to test the properties of the magic states wherein the outer code comprises m parity checks encoded in an m-by-n outer parity check matrix wherein n outer is the number of noisy magic states to be distilled. in the quantum computing device: applying an inner code comprising a weakly self-dual error correcting code to implement control-Swap operations on a plurality of qubits or qudits wherein a distance of the code scales proportional to the number of logical qubits or qudits; using the control-Swap operations to suppress measurement errors of the magic states applying an inner code comprising a weakly self-dual error correcting code to implement control-Swap operations on a plurality of qubits or qudits wherein a distance of the code scales proportional to the number of logical qubits or qudits; using the control-Swap operations to suppress measurement errors of the magic states on the plurality of qubits or qudits; and applying an outer code comprising an error-correcting code with a sensitivity selected to test the properties of the magic states wherein the outer code comprises m parity checks encoded in an m-by-n outer parity check matrix wherein n outer is the number of noisy magic states to be distilled.
A test strip for measuring the blood alcohol content from blood, the test strip comprising a base material and two electrodes (1, 2) attached to it and a reaction area connected to both electrodes, to which reaction area nicotinamide adenine dinucleotide (NAD +) and alcohol dehydrogenase enzyme are applied as reagents, and saccharose and bovine serum albumin as auxiliary substances, wherein the reagents and the auxiliary substances are dried to the base, onto the electrodes (1, 2), a sample opening in connection with the reaction area, from which sample opening the blood sample to be measured can be transferred to the reaction area to dissolve the reagents and optional auxiliary substances, and at the same time come into contact with both electrodes (1, 2), between which can be formed a potential difference which makes possible the movement of the protons (H +) formed in the reaction towards a negatively charged working electrode, whereby a measurable change in current is formed.
Needle for invasive medical use comprising a long extended cylindrical needle shaft having an axis A and an outer surface area, with a short shaft end at a first end of the shaft with a beveled tip with a pointed end, and a needle hub attached to a second end of the shaft comprising a device to indicate the location of the shaft end during use inside a body, characterized in that the needle comprises a flexible joint with a notch within the shaft at the beginning of the shaft end and that the said device is a displacement sensor for detecting a displacement of the shaft end relative to the rest of the shaft resulted from a force F applied to the shaft end when the needle hub is moved and a signal conductor to transmit the detected signals.
Drawing compass consisting of two arms arranged around a pivot point and provided at their proximal end with the pivot point of a shoulder zone, the arms being movable in rotation between an angular opening position and a closed position, the ends of the arms located near the pivot point terminating in pivoting bearing planes mounted against one another, the compass further comprising a locking system composed of a locking head, an activation cap of the mechanism by rotation and a threaded interface (12, 13) characterized in that the locking head can be displaced axially by the activation cap between an unlocking position, when the locking head is at a distance from the shoulders (4,) and a locking position, when the locking head is in direct contact with the shoulders, the axially outer end of said bearing planes following an arcuate profile forming the shoulder surfaces serving as bearing surfaces for the locking system, so as to prevent an angular displacement of the arms.
A retractable mounting assembly, comprising: a frame assembly comprising at least one substantially rigid frame member, wherein the frame assembly is configured to facilitate movement of an agricultural soil analyzer from a first position longitudinally proximate to a rear end of an agricultural implement to a second position longitudinally rearward of the first position, relative to a direction of travel of the agricultural implement, the frame assembly is configured to position the agricultural soil analyzer above and proximate to a surface of an agricultural field while in the second position, and characterized in that each of the at least one substantially rigid frame member is formed from a non-electrically interactive material and in that the at least one frame member comprises: a base configured to couple to the agricultural implement; a first support arm having a first end rotatably coupled to the base and a second end, wherein the first support arm is configured to rotate about a first axis relative to the base; and a second support arm having a first end rotatably coupled to the second end of the first support arm, and a second end configured to couple to the agricultural soil analyzer, wherein the second support arm is configured to rotate about a second axis relative to the first support arm. a base configured to couple to the agricultural implement; a first support arm having a first end rotatably coupled to the base and a second end, wherein the first support arm is configured to rotate about a first axis relative to the base; and a second support arm having a first end rotatably coupled to the second end of the first support arm, and a second end configured to couple to the agricultural soil analyzer, wherein the second support arm is configured to rotate about a second axis relative to the first support arm.
A method by a transmitting user equipment, UE, for controlling radio resources used for a data transmission, the method comprising: determining (402, 500) an allocated bandwidth; determining (400, 502) a transmission bandwidth for the data transmission; and transmitting (404, 504) towards a receiving UE a scheduling assignment that indicates a number or a set of subchannels within the allocated bandwidth; wherein determining (400, 502) the transmission bandwidth comprises determining a largest number of resource blocks for a supported Discrete Fourier Transform size such that the allocated bandwidth is greater or equal to the transmission bandwidth. determining (402, 500) an allocated bandwidth; determining (400, 502) a transmission bandwidth for the data transmission; and transmitting (404, 504) towards a receiving UE a scheduling assignment that indicates a number or a set of subchannels within the allocated bandwidth;