mhurhangee/ep-ind-claims huggingface dataset:
A device (12, 210, 220) for use in a domestic appliance, in particular in a washing machine, in a dishwasher, in a tumble dryer and/or in a washer-dryer, the device comprising: - a core (212, 222), comprising at least one output module (213, 223) which is designed to release at least one preparation into the treatment space of the domestic appliance and/or to initiate an output; - a housing (211, 221), wherein the housing (211, 221) is designed to be positioned in a treatment space of a domestic appliance, wherein the housing (211, 221) comprises a first casing element (214, 224) and a second casing element (215, 225), wherein the first casing element (214, 224) is made of a first material and the second casing element (215, 225) is made of a second material, and wherein the housing (211, 221) at least partially encloses the core (212, 222), wherein the first material is an elastomer, in particular a thermoplastic elastomer, and wherein the second material is a thermoset and/or a thermoplastic, wherein the first casing element has noise-insulating and/or shock-absorbing properties on account of the choice of the first material, wherein the second casing element (215, 225) has a lower coefficient of friction than the first casing element (214, 224) with respect to objects introduced into the treatment space, wherein the objects are selected from the list comprising: household goods, textiles, crockery and/or cutlery. - a core (212, 222), comprising at least one output module (213, 223) which is designed to release at least one preparation into the treatment space of the domestic appliance and/or to initiate an output; - a housing (211, 221), wherein the housing (211, 221) is designed to be positioned in a treatment space of a domestic appliance, wherein the housing (211, 221) comprises a first casing element (214, 224) and a second casing element (215, 225), wherein the first casing element (214, 224) is made of a first material and the second casing element (215, 225) is made of a second material, and wherein the housing (211, 221) at least partially encloses the core (212, 222),
A compound of formula: or an epimer thereof; wherein Ar is an aryl group, optionally substituted with one or more substituents selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 6 hydroxyalkyl, C 1 -C 6 alkoxy, halo, and nitro; X is O, NH, or S; R 2 and R 3 are independently C 1 -C 6 alkyl; R 1 is isopropyl or isopropenyl; "a" is a single bond or a double bond; when "a" is a double bond, R 4 is hydrogen, and R 5 is halo or H; when "a" is a single bond, R 4 is selected from the group consisting of halo, hydroxy, and C 1 -C 6 alkoxy and R 5 is halo or H; and R 6 is H, C 1 -C 6 alkyl carbonyl, or hydroxy C 1 -C 6 alkyl carbonyl, for a combined use with at least one antiviral agent in treating an HIV-infected animal or an HTLV-infected animal or for use in increasing the activity of latent infected CD4+ cells of an animal carrying HIV, in inhibiting Treg activation and number in an animal carrying HTLV, and/or in decreasing Glut1 expression in an ATL cell in an animal carrying HTLV. Ar is an aryl group, optionally substituted with one or more substituents selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 6 hydroxyalkyl, C 1 -C 6 alkoxy, halo, and nitro; X is O, NH, or S; R 2 and R 3 are independently C 1 -C 6 alkyl; R 1 is isopropyl or isopropenyl; "a" is a single bond or a double bond; when "a" is a double bond, R 4 is hydrogen, and R 5 is halo or H; when "a" is a single bond, R 4 is selected from the group consisting of halo, hydroxy, and C 1 -C 6 alkoxy and R 5 is halo or H; and when "a" is a double bond, R 4 is hydrogen, and R 5 is halo or H; when "a" is a single bond, R 4 is selected from the group consisting of halo, hydroxy, and C 1 -C 6 alkoxy and R 5 is halo or H; and R 6 is H, C 1 -C 6 alkyl carbonyl, or hydroxy C 1 -C 6 alkyl carbonyl,
An ultrasonic sensor for capturing a value document which is transported through a capture region of the ultrasonic sensor, having an ultrasonic transducer as an ultrasound transmitter (30, 30'; 82) and an ultrasonic transducer as an ultrasound receiver (32, 32'; 82) which are so arranged that ultrasound is emittable by the ultrasound transmitter (30, 30'; 82) into the capture region and the ultrasound transmitter's (30, 30'; 82) ultrasound coming from the capture region is receivable by the ultrasound receiver (32, 32'; 82), having a control and evaluation circuit for controlling the ultrasound transmitter (30, 30'; 82) and for capturing and evaluating signals of the ultrasound receiver (32, 32'; 82), characterized by a circuit carrier (28; 73) on which the control and evaluation circuit, the ultrasound transmitter (30, 30'; 82) and the ultrasound receiver (32, 32'; 82) as well as conducting paths (36; 80) electrically connecting the control and evaluation circuit to the ultrasound transmitter (30, 30'; 82) and the ultrasound receiver (32, 32'; 82) are held, the circuit carrier (28; 73) being of U-shaped configuration and having two interconnected arm portions (40, 40'), the circuit carrier (28; 73) being a printed board and the ultrasound transmitter (30, 30'; 82) being held on one of the two arm portions (40, 40') and the ultrasound receiver (32, 32'; 82) on the other of the two arm portions (40, 40').
A high-strength steel sheet which decreases little in strength after stress relieving annealing and has excellent low temperature joint toughness, the high-strength steel sheet comprising C: 0.10 to 0.16% (mass %. The same applies hereinafter), Si: 0.05 to 0.50%, Mn: 1.3 to 1.9%, Al: 0.01 to 0.05%, Ti: 0.005 to 0.025%, Nb: 0.005 to 0.025%, V: 0.005 to 0.06% and Mo: 0.03 to 0.10%, and optionally as other elements Cr: 0.30% or lower (not including 0%), Cu: 0.50% or lower (not including 0%) and/or Ni: 0.50% or lower (not including 0%), and Ca: 0.0040% or lower (not including 0%), with the remainder being iron and inevitable impurities, a CP value defined by equation below being 5.40% or higher, and a carbon equivalent Ceq defined by equation below being 0.45% or lower. CP value = 125 Ti + 111 Nb + 60 V + 15 Mo wherein [Ti], [Nb], and [Mo] represent the amounts of Ti, Nb, V and Mo contained (mass %), respectively. Ceq = C + Mn / 6 + Cr + Mo + V / 5 + Cu + Ni / 15 wherein, [Mn], [Cr], [Mo],, [Cu] and [Ni] represent the amounts of C, Mn, Cr, Mo, V, Cu and Ni contained (mass %), respectively.
A system configured to be positioned at a site along a roadway, and to determine the concentration of one or more constituents present in a sample of exhaust emissions emitted by a vehicle traveling on the roadway from a first location on the roadway to a second location on the roadway, the system comprising: a component detection system configured to determine the concentration of one or more constituents present in vehicle exhaust emissions; a collector operatively coupled to the component detection system, wherein the collector is positioned above the surface of the roadway and has one or more openings for receiving the exhaust emissions of the vehicle to be analyzed by the component detection system; a gathering structure having one or more surfaces positioned to direct the exhaust emissions of the vehicle to be analyzed by the component detection system to the one or more openings of the collector prior to measurement by the component detection system; wherein the component detection system is configured to receive a sample of the exhaust emissions of the vehicle via the collector, and to determine the concentration of one or more constituents present in the sample of exhaust emissions; and wherein the collector is configured such that collection times for exhaust emissions emitted by the vehicle to be conveyed through the collector to the component detection system vary as a function of position of the one or more openings of the collector along the roadway between the first location and the second location to aggregate the exhaust emissions for detection within the component detection system. a component detection system configured to determine the concentration of one or more constituents present in vehicle exhaust emissions; a collector operatively coupled to the component detection system, wherein the collector is positioned above the surface of the roadway and has one or more openings for receiving the exhaust emissions of the vehicle to be analyzed by the component detection system; a gathering structure having one or more surfaces positioned to direct the exhaust emissions of the vehicle to be analyzed by the component detection system to the one or more openings of the collector prior to measurement by the component detection system; wherein the component detection system is configured to receive a sample of the exhaust emissions of the vehicle via the collector, and to determine the concentration of one or more constituents present in the sample of exhaust emissions; and wherein the collector is configured such that collection times for exhaust emissions emitted by the vehicle to be conveyed through the collector to the component detection system vary as a function of position of the one or more openings of the collector along the roadway between the first location and the second location to aggregate the exhaust emissions for detection within the component detection system.
A food composition in the form of a water-in-oil-in-water emulsion, the food composition comprising: ∘ Water, ∘ Oil phase comprising: • Vegetable oil, • Water-in-oil emulsifier consisting of fat crystals, wherein the fat crystals are present in an amount of from 0.5 to 15 wt%, based on the weight of the oil phase, and the fat crystals are fat that are triglycerides or mixtures of triglycerides that crystalize at a temperature of between 58 and 72°C, wherein the oil phase is present in an amount of from 5 to 76 wt%, based on the weight of the composition, ∘ Oil-in-water emulsifier, in an amount of from 0.2 to 6 wt%, based on the weight of the food composition, wherein the oil-in-water emulsifier comprises less than 5% phospholipid based on total weight of the oil-in-water emulsifier, wherein the composition comprises less than 0.2 wt% monoglycerides based on the oil phase, and wherein the composition is free of polyglycerol polyricinoleate. ∘ Water, ∘ Oil phase comprising: • Vegetable oil, • Water-in-oil emulsifier consisting of fat crystals, wherein the fat crystals are present in an amount of from 0.5 to 15 wt%, based on the weight of the oil phase, and the fat crystals are fat that are triglycerides or mixtures of triglycerides that crystalize at a temperature of between 58 and 72°C, wherein the oil phase is present in an amount of from 5 to 76 wt%, based on the weight of the composition, • Vegetable oil, • Water-in-oil emulsifier consisting of fat crystals, wherein the fat crystals are present in an amount of from 0.5 to 15 wt%, based on the weight of the oil phase, and the fat crystals are fat that are triglycerides or mixtures of triglycerides that crystalize at a temperature of between 58 and 72°C, ∘ Oil-in-water emulsifier, in an amount of from 0.2 to 6 wt%, based on the weight of the food composition, wherein the oil-in-water emulsifier comprises less than 5% phospholipid based on total weight of the oil-in-water emulsifier, wherein the composition comprises less than 0.2 wt% monoglycerides based on the oil phase, and wherein the composition is free of polyglycerol polyricinoleate.
A bioelectrode pad for an electrocardiograph, configured to be applied to the skin of a living body, the bioelectrode pad comprising: plural sheets of electrodes (1, 2, 7) stacked mutually; and conductive gel sheets (3, 4), characterized in that the conductive gel sheets (3, 4) are arranged alternately with the plural sheets of electrodes and interposed between the plural sheets of electrodes (1, 2, 7). plural sheets of electrodes (1, 2, 7) stacked mutually; and conductive gel sheets (3, 4), characterized in that the conductive gel sheets (3, 4) are arranged alternately with the plural sheets of electrodes and interposed between the plural sheets of electrodes (1, 2, 7).
A sensor, comprising: - a centrally mounted disc resonator including a drive electrode disposed internal to the disc resonator and a plurality of sense electrodes; - a drive circuit configured to apply a sinusoidal carrier voltage to the drive electrode to excite a common driven mode of the disc resonator that induces three sensing modes of the disc resonator; and - a sense circuit configured to demodulate three response signals from the plurality of sense electrodes configured to sense the three response modes of the disc resonator, where the three demodulated response signals comprise rotation measurement about three substantially orthogonal axes, wherein the disc resonator comprises a circumferentially slotted disc and the plurality of drive electrodes and at least some of the plurality of sense electrodes are internal sense electrodes (108A-108D) disposed within slots of the disc resonator, and wherein the common driven mode and the three response modes operate at a common frequency, and wherein the disc resonator is tuned such that the common driven mode and the three sensing modes operate at the common frequency. - a centrally mounted disc resonator including a drive electrode disposed internal to the disc resonator and a plurality of sense electrodes; - a drive circuit configured to apply a sinusoidal carrier voltage to the drive electrode to excite a common driven mode of the disc resonator that induces three sensing modes of the disc resonator; and - a sense circuit configured to demodulate three response signals from the plurality of sense electrodes configured to sense the three response modes of the disc resonator, where the three demodulated response signals comprise rotation measurement about three substantially orthogonal axes,
An anti-glare apparatus comprising: a light source detector configured to detect, from a movable body, a light source (S1, S2) that exists outside the movable body; a specific-frequency-light reactive member that is arranged in a planar form and located in front of a driver driving the movable body, wherein the specific-frequency-light reactive member is configured to change color in response to light having a specific frequency; and a light source position calculator configured to calculate a position (P1, P2) of the light source on the surface of the specific-frequency-light reactive member based on output of the light source detector; characterised in that the anti-glare apparatus further comprises a light emitter configured to emit light having the specific frequency from the inside of the movable body to the specific-frequency-light reactive member based on the calculated light source position (P1, P2). a light source detector configured to detect, from a movable body, a light source (S1, S2) that exists outside the movable body; a specific-frequency-light reactive member that is arranged in a planar form and located in front of a driver driving the movable body, wherein the specific-frequency-light reactive member is configured to change color in response to light having a specific frequency; and a light source position calculator configured to calculate a position (P1, P2) of the light source on the surface of the specific-frequency-light reactive member based on output of the light source detector; characterised in that the anti-glare apparatus further comprises a light emitter configured to emit light having the specific frequency from the inside of the movable body to the specific-frequency-light reactive member based on the calculated light source position (P1, P2).
A method performed by a controlling network node for handling one or more virtual network functions, VNF, in a communication network, the method comprising: - initiating a setup of virtual resources for a VNF, wherein an aggregating connection point, CP, indicates a set of CPs to be connected to a same external virtual link; and - transmitting configuration data to a managing function wherein the configuration data comprises an indication to connect the set of CPs, grouped by the aggregating CP, to the same external virtual link, wherein intiating the setup comprises - using a model of the VNF with the aggregating connection point for aggregating and connecting the set of CPs to a same external virtual link. - initiating a setup of virtual resources for a VNF, wherein an aggregating connection point, CP, indicates a set of CPs to be connected to a same external virtual link; and - transmitting configuration data to a managing function wherein the configuration data comprises an indication to connect the set of CPs, grouped by the aggregating CP, to the same external virtual link, wherein intiating the setup comprises - using a model of the VNF with the aggregating connection point for aggregating and connecting the set of CPs to a same external virtual link.
A surgical compression instrument configured to facilitate compression of vertebrae via connection with first and second implant supports (14, 14a) and comprising: a member configured for disposal longitudinally along the first implant support for pivotably connecting the first implant support to the second implant support, the first implant support being engageable with a first receiver of a first fastener having a first shaft fixed with vertebral tissue and the second implant support being engageable with a second receiver of a second fastener having a second shaft fixed with vertebral tissue; and a slider being axially translatable relative to the member and engageable with the implant supports (14, 14a) such that the second implant support moves relative to the first implant support to compress the vertebral tissue, wherein the member includes an actuator that translates the slider, wherein the actuator includes a threaded surface engageable with a body of the member to translate the slider. a member configured for disposal longitudinally along the first implant support for pivotably connecting the first implant support to the second implant support, the first implant support being engageable with a first receiver of a first fastener having a first shaft fixed with vertebral tissue and the second implant support being engageable with a second receiver of a second fastener having a second shaft fixed with vertebral tissue; and a slider being axially translatable relative to the member and engageable with the implant supports (14, 14a) such that the second implant support moves relative to the first implant support to compress the vertebral tissue, wherein the member includes an actuator that translates the slider, wherein the actuator includes a threaded surface engageable with a body of the member to translate the slider.
An electrode comprising a Ti layer and a Pt layer that are sequentially laid on a surface of a p-type semiconductor layer (12, 13, 14), wherein a thermal impedance per unit area of a contact portion that is in contact with the surface of the p-type semiconductor layer (12, 13, 14) is equal to or smaller than 1.2×10 4 K/W•m 2, characterised in that a film thickness of the Ti layer is equal to or more than 5 nm and equal to or smaller than 35 nm, and a film thickness of the Pt layer is equal to or more than 30 nm. a thermal impedance per unit area of a contact portion that is in contact with the surface of the p-type semiconductor layer (12, 13, 14) is equal to or smaller than 1.2×10 4 K/W•m 2, characterised in that a film thickness of the Ti layer is equal to or more than 5 nm and equal to or smaller than 35 nm, and a film thickness of the Pt layer is equal to or more than 30 nm.
Striking mechanism for a timepiece, comprising: - at least one gong (29, 30), - an actuating device (11, 20-28, 31-62) for actuating the gong(s), - a striking barrel, - a coupling device with a lever (6; 110; 135) for coupling the actuating device (11, 20-28, 31-62) to the striking barrel, the lever (6; 110; 135) of the coupling device being arranged to pivot between a first position where the actuating device (11, 20-28, 31-62) is coupled to the striking barrel and a second position where the actuating device (11, 20-28, 31-62) is decoupled from the striking barrel, and - a blocking device (18, 60; 120; 139) for blocking the striking barrel, characterised in that the blocking device comprises a blocking member (18; 120; 139) rigidly connected to the lever (6; 110; 135) and arranged to block the striking barrel when the lever (6; 110; 135) is in the second position and to not block the striking barrel when the lever (6; 110; 135) is in the first position. - at least one gong (29, 30), - an actuating device (11, 20-28, 31-62) for actuating the gong(s), - a striking barrel, - a coupling device with a lever (6; 110; 135) for coupling the actuating device (11, 20-28, 31-62) to the striking barrel, the lever (6; 110; 135) of the coupling device being arranged to pivot between a first position where the actuating device (11, 20-28, 31-62) is coupled to the striking barrel and a second position where the actuating device (11, 20-28, 31-62) is decoupled from the striking barrel, and - a blocking device (18, 60; 120; 139) for blocking the striking barrel, characterised in that the blocking device comprises a blocking member (18; 120; 139) rigidly connected to the lever (6; 110; 135) and arranged to block the striking barrel when the lever (6; 110; 135) is in the second position and to not block the striking barrel when the lever (6; 110; 135) is in the first position.
A sensor device for determining an axial position of a body along a longitudinal axis, the sensor device comprising: at least one excitation coil that extends around the longitudinal axis; at least one first detection coil arranged in the vicinity of the excitation coil essentially in a first detection plane perpendicular to the longitudinal axis; at least one second detection coil arranged in the vicinity of the excitation coil essentially in a second detection plane perpendicular to the longitudinal axis; excitation circuitry configured to supply the excitation coil with current at an excitation frequency to create an excitation magnetic field distribution; and detection circuitry configured to determine the axial position of the body based on signals from the first and second detection coils (21, 22) at the excitation frequency, characterized in that the second detection plane is arranged at an axial distance to the first detection plane, and that the detection circuitry is configured to base the determination of the axial position on at least one difference between the signals from the at least one first detection coil and the signals from the at least one second detection coil. at least one excitation coil that extends around the longitudinal axis; at least one first detection coil arranged in the vicinity of the excitation coil essentially in a first detection plane perpendicular to the longitudinal axis; at least one second detection coil arranged in the vicinity of the excitation coil essentially in a second detection plane perpendicular to the longitudinal axis; excitation circuitry configured to supply the excitation coil with current at an excitation frequency to create an excitation magnetic field distribution; and detection circuitry configured to determine the axial position of the body based on signals from the first and second detection coils (21, 22) at the excitation frequency, characterized in that the second detection plane is arranged at an axial distance to the first detection plane, and that the detection circuitry is configured to base the determination of the axial position on at least one difference between the signals from the at least one first detection coil and the signals from the at least one second detection coil.