mhurhangee/ep-ind-claims huggingface dataset:
A method (1300, 1400, 1500) for wireless communication performed by a base station (105-h, 105-i) serving a mobile device (115-e), comprising: recognizing that the mobile device is traveling along a physical route; accessing (1305, 1405, 1505) historical channel information associated with historical mobility patterns of the mobile device, wherein the historical mobility patterns comprise patterns of another mobile device previously traveling the physical route; and using the historical channel information to predict a current channel condition; predicting a variance in a channel condition based at least in part on the accessed historical channel information; adjusting (1310, 1420, 1525) a modulation and coding scheme parameter of the mobile device based at least in part on the accessed historical channel information associated with the historical mobility patterns of the mobile device, wherein the adjusting is based at least in part on the recognition, wherein adjusting the modulation and coding scheme parameter is based at least in part on the predicted current channel condition and the predicted variance in the channel condition. recognizing that the mobile device is traveling along a physical route; accessing (1305, 1405, 1505) historical channel information associated with historical mobility patterns of the mobile device, wherein the historical mobility patterns comprise patterns of another mobile device previously traveling the physical route; and using the historical channel information to predict a current channel condition; predicting a variance in a channel condition based at least in part on the accessed historical channel information; adjusting (1310, 1420, 1525) a modulation and coding scheme parameter of the mobile device based at least in part on the accessed historical channel information associated with the historical mobility patterns of the mobile device, wherein the adjusting is based at least in part on the recognition, wherein adjusting the modulation and coding scheme parameter is based at least in part on the predicted current channel condition and the predicted variance in the channel condition.
A genetically modified microbial host cell comprising: (a) a heterologous nucleic acid molecule encoding an Ocimum species myrcene synthase that comprises: an amino acid sequence that has at least 70%, at least about 75%, at least about 80%, at least about 85%, at least about 90%, at least about 95%, at least about 96%, at least about 97%, at least about 98%, at least about 99% sequence identity to SEQ ID NO: 2 and at least one variant amino acid residue compared to SEQ ID NO: 2 at one or more of positions 27, 28, 207, 213, 222, 342, 347, 381, 382, 389, 390, 401, 404, 428, 439, 466, 482, 484, 505, 514, 517, 524, 527, 528, 543, 544, and 552, wherein the positions are numbered with reference to SEQ ID NO: 2; and (b) a heterologous nucleic acid molecule encoding a geranyl pyrophosphate synthase. (a) a heterologous nucleic acid molecule encoding an Ocimum species myrcene synthase that comprises: an amino acid sequence that has at least 70%, at least about 75%, at least about 80%, at least about 85%, at least about 90%, at least about 95%, at least about 96%, at least about 97%, at least about 98%, at least about 99% sequence identity to SEQ ID NO: 2 and at least one variant amino acid residue compared to SEQ ID NO: 2 at one or more of positions 27, 28, 207, 213, 222, 342, 347, 381, 382, 389, 390, 401, 404, 428, 439, 466, 482, 484, 505, 514, 517, 524, 527, 528, 543, 544, and 552, wherein the positions are numbered with reference to SEQ ID NO: 2; and (b) a heterologous nucleic acid molecule encoding a geranyl pyrophosphate synthase.
A combination of eyeglasses and a case for the eyeglasses, wherein the eyeglasses are provided with at least one integrated electrical or electronic device (7, 8) supplied by at least one rechargeable battery, and wherein said case is formed by two half-shells (11,12) articulated to one another and incorporates a battery charger (16; 22; 25) configured for charging said rechargeable battery when the eyeglasses are inserted in the case, said battery charger (16; 22; 25) being operatively connected to exposed contacts within the case that are configured for co-operating with complementary contacts carried by the eyeglasses and connected to said at least one battery, wherein - said contacts of the eyeglasses are situated on the surface of one of the articulated arms of the eyeglasses, - the case is formed with a receptacle for accommodating the eyeglasses in the configuration where the corresponding arms (4,5) are folded, said receptacle being defined by two respective recesses (13, 14) of said half-shells (11, 12), having a shape complementary to that of the eyeglasses and configured for setting the contacts of the eyeglasses in a position corresponding to the contacts of the case, characterized in that said exposed contacts are arranged at opposite side walls of one recess. - said contacts of the eyeglasses are situated on the surface of one of the articulated arms of the eyeglasses, - the case is formed with a receptacle for accommodating the eyeglasses in the configuration where the corresponding arms (4,5) are folded, said receptacle being defined by two respective recesses (13, 14) of said half-shells (11, 12), having a shape complementary to that of the eyeglasses and configured for setting the contacts of the eyeglasses in a position corresponding to the contacts of the case,
A system for use in determining a capacity of a storage bin, the system comprising: a storage bin; a plurality of sensors positioned within the storage bin, wherein each sensor is configured to: determine a used capacity within a portion of the storage bin; and generate a voltage output based on the determined used capacity, wherein the plurality of sensors is configured to generate an aggregate voltage output based on the voltage output of each sensor; and a controller in communication with the plurality of sensors, the controller configured to: receive the aggregate voltage output from the plurality of sensors; determine a minimum voltage output and a maximum voltage output of the plurality of sensors; and determine a total used capacity of the storage bin as a function of the aggregate voltage output, the minimum voltage output, and the maximum voltage output. a storage bin; a plurality of sensors positioned within the storage bin, wherein each sensor is configured to: determine a used capacity within a portion of the storage bin; and generate a voltage output based on the determined used capacity, wherein the plurality of sensors is configured to generate an aggregate voltage output based on the voltage output of each sensor; and determine a used capacity within a portion of the storage bin; and generate a voltage output based on the determined used capacity, wherein the plurality of sensors is configured to generate an aggregate voltage output based on the voltage output of each sensor; and a controller in communication with the plurality of sensors, the controller configured to: receive the aggregate voltage output from the plurality of sensors; determine a minimum voltage output and a maximum voltage output of the plurality of sensors; and determine a total used capacity of the storage bin as a function of the aggregate voltage output, the minimum voltage output, and the maximum voltage output. receive the aggregate voltage output from the plurality of sensors; determine a minimum voltage output and a maximum voltage output of the plurality of sensors; and determine a total used capacity of the storage bin as a function of the aggregate voltage output, the minimum voltage output, and the maximum voltage output.
A clear, inkjet coating composition, comprising: an organic solvent present in an amount ranging from 6 wt% to 20 wt% of the fluid composition; a polymeric binder present in an amount ranging from 1.5 wt% to 10 wt% of the fluid composition; a surfactant present in an amount ranging from 0.5 wt% to 2 wt%; and metal oxide nanoparticles chosen from zinc oxide, aluminum oxide, or a combination of zinc oxide and aluminum oxide, wherein the zinc oxide, the aluminum oxide, or the combination thereof has a pH that is greater than 7; wherein the coating composition is jettable from a thermal inkjet printhead; and, wherein the organic solvent is a mixture of 1,2-hexanediol, 2-pyrrolidone, and polyethoxylated ether of glycerol (LEG-1). an organic solvent present in an amount ranging from 6 wt% to 20 wt% of the fluid composition; a polymeric binder present in an amount ranging from 1.5 wt% to 10 wt% of the fluid composition; a surfactant present in an amount ranging from 0.5 wt% to 2 wt%; and metal oxide nanoparticles chosen from zinc oxide, aluminum oxide, or a combination of zinc oxide and aluminum oxide, wherein the zinc oxide, the aluminum oxide, or the combination thereof has a pH that is greater than 7;
Method for producing a rotary vibration damper with a hub part connectable in a rotationally secure manner to a shaft and a flywheel rim part connected to the hub part by means of an elastomer layer, wherein the elastomer layer is arranged in a gap between the flywheel rim part and an area of the hub part coaxial to the flywheel rim part, wherein the hub part and the flywheel rim part are first produced in the form of a one-piece workpiece and then the hub part and the flywheel rim part are separated from one another mechanically, wherein to form the one-piece workpiece firstly a disc-shaped blank plate is formed into a well shape such that the one-piece workpiece has adjacent to the well bottom the coaxial area of the hub part, adjacent thereto a radially extended annular or conical web area and adjacent thereto and spaced apart axially from the coaxial area the flywheel rim part, wherein the one-piece workpiece is divided afterwards by separating the annular web area in axial direction into the hub part and the flywheel rim part, characterised in that after the separation of the one-piece workpiece the hub part is rotated relative to the flywheel rim part by 180 degrees and then the flywheel rim part is arranged on the hub part so that the gap formed between the coaxial area of the hub part and the flywheel rim part is delimited on one side by the respective web areas (7a, 7b).
A bearing system (900, 1000, 1500, 1700) comprising a fluid bearing, a shaft with a solid portion, and a bush located around said solid portion and in front of pad or pads of the fluid bearing, wherein the bush comprises a hollow cylindrical portion (932, 1032, 1532, 1732) and a plurality of supporting elements (934A, 934B, 1034A, 1034B, 1534A, 1534B, 1734A, 1734B) that fix the hollow cylindrical portion (932, 1032, 1532, 1732) of the bush to the solid portion of the shaft, wherein first and second sets of supporting elements (934A, 934B, 1034A, 1034B, 1534A, 1534B, 1734A, 1734B), positioned at first and second positions respectively of the hollow cylindrical portion (932, 1032, 1532, 1732), - define an annular chamber (938, 1038, 1538, 1738) between the hollow cylindrical portion (932, 1032, 1532, 1732) of the bush and the solid portion of the shaft characterized in that the supporting elements (934A, 934B, 1034A, 1034B, 1534A, 1534B, 1734A, 1734B) - are shaped and positioned to provide, during rotation of the shaft, the flow of a lubricant fluid or a heat-exchange fluid from the annular chamber (938, 1538) to a first side of the fluid bearing and to a second side of the fluid bearing or from a first side of the fluid bearing and from a second side of the fluid bearing to the annular chamber (1038, 1738). - define an annular chamber (938, 1038, 1538, 1738) between the hollow cylindrical portion (932, 1032, 1532, 1732) of the bush and the solid portion of the shaft characterized in that the supporting elements (934A, 934B, 1034A, 1034B, 1534A, 1534B, 1734A, 1734B) - are shaped and positioned to provide, during rotation of the shaft, the flow of a lubricant fluid or a heat-exchange fluid from the annular chamber (938, 1538) to a first side of the fluid bearing and to a second side of the fluid bearing or from a first side of the fluid bearing and from a second side of the fluid bearing to the annular chamber (1038, 1738).
A light emitting device comprising: a light emitting element; first and second lead frames (20, 30) electrically connected to the light emitting element; a first resin forming body including a periphery which forms a recess for housing the light emitting element on the first and the second lead frames, and a bottom which forms a bottom portion of the recess; and a second resin forming body which covers the light emitting element housed in the recess of the first resin forming body, wherein the first resin forming body is composed of a thermosetting epoxy resin composite of which essential component is an epoxy resin, the bottom covers surfaces of the first and the second lead frames excluding a mounting region of the light emitting element and mounting regions of wires, and a thickness of the bottom is thinner than a thickness from a surface of the first and the second lead frames to a leading end of the light emitting element, wherein at least one of the first and the second lead frames has an anchor hole (90a, 90b) penetrating the first lead frame or the second lead frame, or a groove (93, 94, 95, 96, 97, 98) that is non-penetrating, and the first resin forming body is filled in the anchor hole or the groove. a light emitting element; first and second lead frames (20, 30) electrically connected to the light emitting element; a first resin forming body including a periphery which forms a recess for housing the light emitting element on the first and the second lead frames, and a bottom which forms a bottom portion of the recess; and a second resin forming body which covers the light emitting element housed in the recess of the first resin forming body, wherein the first resin forming body is composed of a thermosetting epoxy resin composite of which essential component is an epoxy resin, the bottom covers surfaces of the first and the second lead frames excluding a mounting region of the light emitting element and mounting regions of wires, and a thickness of the bottom is thinner than a thickness from a surface of the first and the second lead frames to a leading end of the light emitting element, wherein at least one of the first and the second lead frames has an anchor hole (90a, 90b) penetrating the first lead frame or the second lead frame, or a groove (93, 94, 95, 96, 97, 98) that is non-penetrating, and the first resin forming body is filled in the anchor hole or the groove.
A readout circuit (700, 800) for processing a transducer signal from a capacitive transducer (702, 802) and producing a circuit output signal (V 0), the readout circuit comprising: a high gain circuit element (712, 812) receiving the transducer signal and generating an amplified transducer signal; a first summing amplifier (752, 842) implemented by active circuitry, the first summing amplifier summing the amplified transducer signal with a positive reference voltage (V S) and generating a first summation signal (V 0 ' + V S; -V 0 ' + V S); a second summing amplifier (742, 852) implemented by active circuitry, the second summing amplifier summing the amplified transducer signal with a negative reference voltage (-V S) and generating a second summation signal (V 0 ' - V S; -V 0 ' - V S), the negative reference voltage having substantially the same magnitude but opposite polarity of the positive reference voltage; a first feedback path (730, 820) feeding back the first summation signal to the capacitive transducer; a second feedback path (720, 830) feeding back the second summation signal to the capacitive transducer; and output circuitry generating the circuit output signal as the average of the first summation signal and the second summation signal. a high gain circuit element (712, 812) receiving the transducer signal and generating an amplified transducer signal; a first summing amplifier (752, 842) implemented by active circuitry, the first summing amplifier summing the amplified transducer signal with a positive reference voltage (V S) and generating a first summation signal (V 0 ' + V S; -V 0 ' + V S); a second summing amplifier (742, 852) implemented by active circuitry, the second summing amplifier summing the amplified transducer signal with a negative reference voltage (-V S) and generating a second summation signal (V 0 ' - V S; -V 0 ' - V S), the negative reference voltage having substantially the same magnitude but opposite polarity of the positive reference voltage; a first feedback path (730, 820) feeding back the first summation signal to the capacitive transducer; a second feedback path (720, 830) feeding back the second summation signal to the capacitive transducer; and output circuitry generating the circuit output signal as the average of the first summation signal and the second summation signal.
A method of detecting contamination on a steel part prior to austenitization and press-hardening and/or on steel cold-forming machinery, in which the steel part is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part and/or in which at least parts of the machinery are exposed to ultraviolet light wherein the steel part is coated with a zinc, zinc based alloy, aluminum or aluminum based alloy coating and wherein the steel part and/or machinery is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part, wherein UV-A and UV-C light are used for the detection on steel parts coated with zinc or zinc based alloys or machinery processing the same and wherein the steel part and/or machinery is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part, wherein UV-B light is used for the detection on steel parts coated with aluminum or aluminum based alloys or machinery processing the same, wherein the detected contamination is removed and wherein the steel part is austenitized and press-hardened after removing of the detected contamination. wherein the steel part is coated with a zinc, zinc based alloy, aluminum or aluminum based alloy coating and wherein the steel part and/or machinery is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part, wherein UV-A and UV-C light are used for the detection on steel parts coated with zinc or zinc based alloys or machinery processing the same and wherein the steel part and/or machinery is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part, wherein UV-B light is used for the detection on steel parts coated with aluminum or aluminum based alloys or machinery processing the same, wherein the detected contamination is removed and wherein the steel part is austenitized and press-hardened after removing of the detected contamination.
An external antimicrobial composition for use in prevention or treatment of bacterial infection, comprising a depsipeptide antibiotic drug, which is lotilibcin having the following structural formula: or a pharmaceutically acceptable salt or stereoisomer thereof, in a concentration of at least 0.03μg/mL and boric acid in an amount of at least 0.01% by mass, wherein said combination exhibits antimicrobial synergy and thereby results in eradication of said bacteria and improvement or resolution of said infection caused by said bacteria.
Method for producing a soft-magnetic alloy, comprising the provision of a precursor having a composition consisting substantially of 5 % w/w ≤Co ≤25 % w/w 0.3 % w/w ≤V ≤5.0 % w/w 0% w/w ≤Cr ≤3.0 % w/w 0% w/w ≤Si ≤3.0 % w/w 0% w/w ≤Mn ≤3.0 % w/w 0% w/w ≤Al ≤ 3.0 % w/w 0% w/w ≤Ta ≤0.5 % w/w 0% w/w ≤Ni ≤0.5 % w/w 0% w/w ≤Mo ≤0.5 % w/w 0% w/w ≤Cu ≤0.2 % w/w 0% w/w ≤Nb ≤0.25 % w/w 0% w/w ≤Ti ≤0.05 % w/w 0% w/w ≤Ce ≤0.05 % w/w 0% w/w ≤Ca ≤0.05 % w/w 0% w/w ≤Mg ≤0.05 % w/w 0% w/w ≤C ≤0.02 % w/w 0% w/w ≤Zr ≤0.1 % w/w 0% w/w ≤O ≤0.025 % w/w 0% w/w ≤S ≤0.015 % w/w rest iron, wherein Cr+Si+Al+Mn ≤ 3.0 % w/w, and up to 0.2 % w/w of other impurities, and having a cold-rolled texture, wherein the precursor has a phase transition from a BCC phase area into a BCC/FCC mixed area to an FCC phase area, wherein at increasing temperature the phase transition between the BCC phase area and the BCC/FCC mixed area occurs at a first transition temperature T Ü1 and at further increasing temperature the transition between the BCC/FCC mixed area and the FCC phase area occurs at a second transition temperature T Ü2, as magnetic final annealing a heat treatment of the precursor at the end of all mechanical machining steps at a temperature T 1 > T Ü2, followed by a cooling to room temperature, followed by heating to T 2, wherein T 2 < T Ü2, followed by a heat treatment at T 2 and then cooling to room temperature, wherein 930°C ≤ T 1 < T m, 700°C ≤ T 2 ≤ 1050°C, and T m is the solidus temperature, the cooling rate being 10°C/h to 900°C/h at least across the temperature range from T 1 to T 2. rest iron, wherein Cr+Si+Al+Mn ≤ 3.0 % w/w, and up to 0.2 % w/w of other impurities, and having a cold-rolled texture, wherein the precursor has a phase transition from a BCC phase area into a BCC/FCC mixed area to an FCC phase area, wherein at increasing temperature the phase transition between the BCC phase area and the BCC/FCC mixed area occurs at a first transition temperature T Ü1 and at further increasing temperature the transition between the BCC/FCC mixed area and the FCC phase area occurs at a second transition temperature T Ü2, at a temperature T 1 > T Ü2, followed by a cooling to room temperature, followed by heating to T 2, wherein T 2 < T Ü2, followed by a heat treatment at T 2 and then cooling to room temperature, wherein 930°C ≤ T 1 < T m, 700°C ≤ T 2 ≤ 1050°C, and T m is the solidus temperature, the cooling rate being 10°C/h to 900°C/h at least across the temperature range from T 1 to T 2.
A simulated liquid blood which comprises a gellable component selected from chitosan and/or an alginate compound, at least one colorant in an amount sufficient to mimic coloration of whole mammalian blood and optionally at least one additive selected from the group consisting of viscosity modifiers, tactile agents and scent modifiers, wherein the at least one gellable component is caused to desolubilize, polymerize, complex, precipitate and/or cross-link so as to form a mass of semi-solid or solid material in response to the simulated blood component being brought into contact with a gelling agent to thereby simulate blood clotting, wherein the gelling agent is at least one selected from the group consisting of sodium tripolyphosphate (NaTPP), calcium salts, β-glycerophospate, sodium bicarbonate, sodium carbonate, sodium citrate, citric acid, and Rose Bengal.
A method comprising partitioning a space of user requests into subsets (32; 42), and determining a risk score for a user request based on the evolution of the number of user requests in the subset (32; 42) of user requests to which this user request belongs, determining a time series (33; 43) for the subset (32; 42) of user requests, and in which the risk score for the user request is determined based on this time series (33; 43), and calculating from the time series (33; 43) whether there is a recent sudden increase in the evolution of the number of user requests in the subset (32; 42) to which the time series (33; 43) corresponds, wherein the determined risk score is used to detect if an automated attack has started, or the determined risk score is attributed to reflect a fraudulent use of a web application.
A polymer nanoparticle comprising: a condensed chromophoric polymer comprising a semiconducting polymer, wherein the semiconducting polymer comprises a narrow-band emissive monomer, the condensed chromophoric polymer having an emission spectrum with a full width half maximum (FWHM) of less than 70 nm, wherein the narrow-band emissive monomer is a BODIPY derivative, and wherein the ratio of the number of narrow-band emissive monomers to the number of other monomers is 1:20 or less.