mhurhangee/ep-ind-claims huggingface dataset:
An infrared bolometer comprising: a waveguide configured to guide infrared electromagnetic waves, in a mode having an evanescent field extending outside of the waveguide; a graphene sheet having two contacts and configured: to be coupled to the evanescent field; to have a temperature, when electromagnetic power in the evanescent field is absorbed by the graphene sheet, corresponding to the amount of electromagnetic power absorbed by the graphene sheet; and to generate thermal noise at the two contacts at a level corresponding to the temperature; and a circuit connected to the two contacts, the circuit configured to measure the thermal noise level. a waveguide configured to guide infrared electromagnetic waves, in a mode having an evanescent field extending outside of the waveguide; a graphene sheet having two contacts and configured: to be coupled to the evanescent field; to have a temperature, when electromagnetic power in the evanescent field is absorbed by the graphene sheet, corresponding to the amount of electromagnetic power absorbed by the graphene sheet; and to generate thermal noise at the two contacts at a level corresponding to the temperature; and to be coupled to the evanescent field; to have a temperature, when electromagnetic power in the evanescent field is absorbed by the graphene sheet, corresponding to the amount of electromagnetic power absorbed by the graphene sheet; and to generate thermal noise at the two contacts at a level corresponding to the temperature; and a circuit connected to the two contacts, the circuit configured to measure the thermal noise level.
An oral pharmaceutical suspension composition comprising: (i) a therapeutic effective amount of levocloperastine fendizoate having a volume particle size distribution D 90 of less than 100 μm as measured by laser diffraction; (ii) 0.25% (w/v) to 0.36% (w/v) of xanthan gum as a suspending agent; (iii) 0.25% (w/v) of polyoxyethyl stearate as a surfactant; and (iv) one or more pharmaceutically acceptable excipients. (i) a therapeutic effective amount of levocloperastine fendizoate having a volume particle size distribution D 90 of less than 100 μm as measured by laser diffraction; (ii) 0.25% (w/v) to 0.36% (w/v) of xanthan gum as a suspending agent; (iii) 0.25% (w/v) of polyoxyethyl stearate as a surfactant; and (iv) one or more pharmaceutically acceptable excipients.
Method for operating a boost converter power factor correction circuit (Boost-PFC), wherein the circuit has a freewheeling diode (D 1), a charging coil (L 1) connected in series with the freewheeling diode (D 1), a switch (M 1), a load capacitor (C 1) and an electronic control unit and/or regulation unit, with the method steps: - supplying the circuit with an input voltage V IN, - charging the load capacitor (C 1) with a discharging current generated by the charging coil (L 1) through the controlled switch (M 1), - switching on and off the switch by means of the electronic control unit and/or regulation unit, characterized by: - detecting the current by means of the switch at an input of the control unit and/or regulation unit in time periods in which the switch is closed, - detecting a further operating parameter of the Boost PFC circuit at the input of the control unit and/or regulation unit in time periods in which the switch is opened, - wherein during the detection of the current flowing through the switch the current value of the input voltage V IN or the output voltage V BUS of the circuit is being taken into consideration and - wherein the current through the switch respectively a dimension representative for it is being compared with a threshold value that depends on the current value of the input voltage respectively output voltage. - supplying the circuit with an input voltage V IN, - charging the load capacitor (C 1) with a discharging current generated by the charging coil (L 1) through the controlled switch (M 1), - switching on and off the switch by means of the electronic control unit and/or regulation unit, characterized by: - detecting the current by means of the switch at an input of the control unit and/or regulation unit in time periods in which the switch is closed, - detecting a further operating parameter of the Boost PFC circuit at the input of the control unit and/or regulation unit in time periods in which the switch is opened, - wherein during the detection of the current flowing through the switch the current value of the input voltage V IN or the output voltage V BUS of the circuit is being taken into consideration and - wherein the current through the switch respectively a dimension representative for it is being compared with a threshold value that depends on the current value of the input voltage respectively output voltage.
A thrust reverser, comprising; a frame; a first reverser door being movable relative to the frame; and a second reverser door being movable relative to the frame and rotationally movable relative to the first reverser door via a first pivot point, the first pivot point being movable relative to the frame via a first link rotationally mounted to the frame via a second pivot point; characterised in that: the first and second reverser doors (202, 204) are pivotably coupled to the first link about the first pivot point.
A solid fabric softening composition comprising: a. 25 to 70 wt.% Fabric softening active; b. 10 to 40 wt.% Co-active; and c. 10 to 40 wt.% Disintegrant system; Wherein the disintegrant system comprises salt and acid. a. 25 to 70 wt.% Fabric softening active; b. 10 to 40 wt.% Co-active; and c. 10 to 40 wt.% Disintegrant system;
A solder strip wherein a cross section of the solder strip comprises a base portion and a reflective portion arranged above the base portion, the reflective portion includes a top edge, a first side edge and a second side edge, one end of the first side edge and one end of the second side edge continue from the top edge, and the other end of the first side edge and the other end of the second side edge continue from the base portion, and a first angle is formed between the first side edge and an extension line of a bottom edge of the base portion, a second angle is formed between the second side edge and the extension line of the bottom edge of the base portion, and the first angle and the second angle are both acute angles formed in a range greater than 42.5°, characterized in that a height of a cross-section of the solder strip is less than or equal to 0.3 mm, the base portion has a width of 0.4±0.1 mm and a height of 0.18±0.02 mm, and the reflective portion has a height of 0.09±0.01 mm. the reflective portion includes a top edge, a first side edge and a second side edge, one end of the first side edge and one end of the second side edge continue from the top edge, and the other end of the first side edge and the other end of the second side edge continue from the base portion, and a first angle is formed between the first side edge and an extension line of a bottom edge of the base portion, a second angle is formed between the second side edge and the extension line of the bottom edge of the base portion, and the first angle and the second angle are both acute angles formed in a range greater than 42.5°, characterized in that a height of a cross-section of the solder strip is less than or equal to 0.3 mm, the base portion has a width of 0.4±0.1 mm and a height of 0.18±0.02 mm, and the reflective portion has a height of 0.09±0.01 mm.
A heat pump system comprising: a compressor configured to compress a refrigerant of an air conditioner; an engine configured to drive the compressor; and a bubble outlet unit connected to a coolant circulation channel for supplying a coolant to the engine and configured to discharge the bubbles contained in the coolant, wherein the bubble outlet unit is connected between an exhaust gas heat exchanger connected to an exhaust manifold of the engine and a heat radiator configured to radiate heat of the coolant, characterized in that the bubble outlet unit includes: a first tank connected to the exhaust gas heat exchanger via a coolant inlet line; and a second tank connected to the first tank at a lower part and connected to the heat radiator via a coolant supply line, wherein a bubble outlet hole (211, 221) for discharging bubbles contained in the coolant is provided in at least one of the first tank and the second tank, wherein the first tank and the second tank are connected with each other by a connection pipe, wherein the connection pipe connects lower ends of the first and second tanks (210, 220) with each other. a compressor configured to compress a refrigerant of an air conditioner; an engine configured to drive the compressor; and a bubble outlet unit connected to a coolant circulation channel for supplying a coolant to the engine and configured to discharge the bubbles contained in the coolant, wherein the bubble outlet unit is connected between an exhaust gas heat exchanger connected to an exhaust manifold of the engine and a heat radiator configured to radiate heat of the coolant, characterized in that the bubble outlet unit includes: a first tank connected to the exhaust gas heat exchanger via a coolant inlet line; and a second tank connected to the first tank at a lower part and connected to the heat radiator via a coolant supply line, wherein a bubble outlet hole (211, 221) for discharging bubbles contained in the coolant is provided in at least one of the first tank and the second tank, wherein the first tank and the second tank are connected with each other by a connection pipe, wherein the connection pipe connects lower ends of the first and second tanks (210, 220) with each other. a first tank connected to the exhaust gas heat exchanger via a coolant inlet line; and a second tank connected to the first tank at a lower part and connected to the heat radiator via a coolant supply line, wherein a bubble outlet hole (211, 221) for discharging bubbles contained in the coolant is provided in at least one of the first tank and the second tank, wherein the first tank and the second tank are connected with each other by a connection pipe, wherein the connection pipe connects lower ends of the first and second tanks (210, 220) with each other.
A conjugate comprising an antigen or hapten and an antibody that specifically binds to the antigen or hapten wherein a covalent bond is between a cysteine residue at position 52b or at position 53 according to the heavy chain variable domain numbering of Kabat in the heavy chain CDR2 of the antibody and the antigen or hapten.
A method for preparing a telechelic polymer comprising contacting a compound of formula I: with a base, wherein: R 1 and R 2 are each, independently, H, alkyl, or alkoxy; R a is a polyisobutylene group; R x is an initiator residue; r is an integer from 1 to 4; and X is -Cl, -Br, -I, or -OC R, wherein R is alkyl, alkenyl, alkynyl, alkaryl, aryl, or heteroaryl. R 1 and R 2 are each, independently, H, alkyl, or alkoxy; R a is a polyisobutylene group; R x is an initiator residue; r is an integer from 1 to 4; and X is -Cl, -Br, -I, or -OC R, wherein R is alkyl, alkenyl, alkynyl, alkaryl, aryl, or heteroaryl.
A label for authentication, the label comprising: a substrate; adhesive applied to a portion of the substrate; and a luminescent taggant (310, 320) interspersed in the adhesive, the taggant comprising a first taggant and a second taggant, the first taggant and the second taggant having different emitting wavelengths; characterised in that the adhesive comprises a first adhesive area, a second adhesive area, and a third adhesive area, the second adhesive area being in contact with the surface of the adhesive touching the substrate, the third adhesive area being in contact with the surface of the adhesive opposite the surface touching the substrate, the second adhesive area not being in contact with the surface of the adhesive opposite the surface touching the substrate, the third adhesive area not being in contact with the surface of the adhesive touching the substrate, the second adhesive area comprising the second taggant, the first adhesive area and the third adhesive area not comprising the second taggant, the third adhesive area comprising the first taggant, the first adhesive area and the second adhesive area not comprising the first taggant, a pattern or image being created by the second adhesive area, a pattern or image being created by the third adhesive area. a substrate; adhesive applied to a portion of the substrate; and a luminescent taggant (310, 320) interspersed in the adhesive, the taggant comprising a first taggant and a second taggant, the first taggant and the second taggant having different emitting wavelengths; characterised in that the adhesive comprises a first adhesive area, a second adhesive area, and a third adhesive area, the second adhesive area being in contact with the surface of the adhesive touching the substrate, the third adhesive area being in contact with the surface of the adhesive opposite the surface touching the substrate, the second adhesive area not being in contact with the surface of the adhesive opposite the surface touching the substrate, the third adhesive area not being in contact with the surface of the adhesive touching the substrate, the second adhesive area comprising the second taggant, the first adhesive area and the third adhesive area not comprising the second taggant, the third adhesive area comprising the first taggant, the first adhesive area and the second adhesive area not comprising the first taggant, a pattern or image being created by the second adhesive area, a pattern or image being created by the third adhesive area.
A compound, or a pharmaceutically acceptable salt thereof, of Formula I: in which R 1 and R 2 are each independently fluoro or chloro; R 3 and R 4 are each independently alkyl C1-C20; R 5 is hydrogen or alkyl C1-C20; and R 6 is amide, sulfonamide, hydroxamic acid, or -CH(CF 3)OH or -C(CF 3) 2 OH
Polarimetric imaging device comprising a multiple-quantum-well structure comprising a matrix of individual detection pixels operating on inter-sub-band transitions by absorbing radiation at a wavelength λ, said matrix of individual detection pixels being intended to receive said radiation, each individual detection pixel comprising a distinct stud (C u, MQW) made of a stack of semiconductor layers realised on top of a substrate and constituting the multiple-quantum-well structure, said matrix being organized in subsets of four individual pixels, each subset comprising: • a first polarimetric pixel comprising a first diffraction grating (R P1) sensitive to a first polarization and disposed on the surface of the stud of the firt pixel; • a second polarimetric pixel comprising a second diffraction grating (R P2) sensitive to a second polarization orthogonal to the first polarization and disposed on the surface of the stud of the second pixel; • a third polarimetric pixel comprising a third diffraction grating (R P3) sensitive to a third polarization oriented at an angle between the first and second polarizations and and disposed on the surface of the stud of the third pixel; characterized in that each of said subset comprises a fourth pixel not comprising a polarization-selective diffraction grating, and in that the device further includes means for processing the signals recovered from the detection pixels, said signal processing means comprising means for summing the signals coming from the first, second and third detection pixels respectively and means for subtracting the signal coming from the fourth detection pixel. • a first polarimetric pixel comprising a first diffraction grating (R P1) sensitive to a first polarization and disposed on the surface of the stud of the firt pixel; • a second polarimetric pixel comprising a second diffraction grating (R P2) sensitive to a second polarization orthogonal to the first polarization and disposed on the surface of the stud of the second pixel; • a third polarimetric pixel comprising a third diffraction grating (R P3) sensitive to a third polarization oriented at an angle between the first and second polarizations and and disposed on the surface of the stud of the third pixel;
A method for cleaning up the air in the passenger compartment of a motor vehicle prior to use of said vehicle, the vehicle including communication means, including: - a step of receiving, by the communication means, a command for cleaning up the air of the passenger compartment before the use of the vehicle by a user, the method being characterized by - a step of starting up the clean-up of the air when the vehicle has a sufficient store of energy, - a step of measuring the level of pollution of the air in the passenger compartment; and - a step of calculating the time necessary for cleaning up the air of the passenger compartment up to a predetermined pollution threshold for deducing therefrom the energy necessary for the cleaning up of the air in the passenger compartment. - a step of receiving, by the communication means, a command for cleaning up the air of the passenger compartment before the use of the vehicle by a user, the method being characterized by - a step of starting up the clean-up of the air when the vehicle has a sufficient store of energy, - a step of measuring the level of pollution of the air in the passenger compartment; and - a step of calculating the time necessary for cleaning up the air of the passenger compartment up to a predetermined pollution threshold for deducing therefrom the energy necessary for the cleaning up of the air in the passenger compartment.
A method for indicating number of bits, comprising: indicating, by a transmitting User Equipment, UE, and/or a network entity, the number k of effective indication bits set to "1" in a bitmap sequence via a high layer signaling and/or a physical layer signaling, wherein the bitmap sequence indicates Physical Sidelink Shared Channel, PSSCH, subframes allocation, k comprises one or multiple values, 1 ≤ k ≤ N, and N is a bit length of the entire bitmap sequence; wherein a Time Resource Pattern, TRP, indicates a bitmap pattern through a 7-bit index, each of TRP indexes corresponds to one bitmap pattern, and the TRP indexes indicate all or part of bitmap patterns corresponding to one or multiple k values. indicating, by a transmitting User Equipment, UE, and/or a network entity, the number k of effective indication bits set to "1" in a bitmap sequence via a high layer signaling and/or a physical layer signaling, wherein the bitmap sequence indicates Physical Sidelink Shared Channel, PSSCH, subframes allocation, k comprises one or multiple values, 1 ≤ k ≤ N, and N is a bit length of the entire bitmap sequence; wherein a Time Resource Pattern, TRP, indicates a bitmap pattern through a 7-bit index, each of TRP indexes corresponds to one bitmap pattern, and the TRP indexes indicate all or part of bitmap patterns corresponding to one or multiple k values.
A nitric oxide delivery device comprising a nitric oxide delivery system, wherein the nitric oxide delivery system is adapted to deliver a pulse of a gas comprising NO i. at a delivery concentration in the range from 2,200 ppm NO to 5,000 ppm NO, ii. at a dosing rate of less than or equal to 166 μg NO per second, iii. at a therapeutic gas flow rate of less than or equal to 1 L/min, and wherein the pulse has a volume of 0.05 mL, 0.1 mL, 0.15 mL, 0.2 mL, 0.25 mL, 0.3 mL, 0.35 mL, 0.4 mL, 0.45 mL, 0.5 mL, 0.55 mL, 0.6 mL, 0.65 mL, 0.7 mL, 0.75 mL, 0.8 mL, 0.85 mL, 0.9 mL, 0.95 mL or 1 mL. i. at a delivery concentration in the range from 2,200 ppm NO to 5,000 ppm NO, ii. at a dosing rate of less than or equal to 166 μg NO per second, iii. at a therapeutic gas flow rate of less than or equal to 1 L/min,
A method of polymerising monomer to form polymer at the surface of solid particulate material, said method comprising: providing a dispersion of said solid particulate material in a continuous hydrophilic liquid phase, said dispersion comprising a hydrophilic RAFT agent as a stabiliser for said solid particulate material, and said continuous hydrophilic liquid phase comprising one or more ethylenically unsaturated monomers; and polymerising said one or more ethylenically unsaturated monomers under the control of said hydrophilic RAFT agent to thereby form polymer at the surface of said solid particulate material. providing a dispersion of said solid particulate material in a continuous hydrophilic liquid phase, said dispersion comprising a hydrophilic RAFT agent as a stabiliser for said solid particulate material, and said continuous hydrophilic liquid phase comprising one or more ethylenically unsaturated monomers; and polymerising said one or more ethylenically unsaturated monomers under the control of said hydrophilic RAFT agent to thereby form polymer at the surface of said solid particulate material.
A portable computer (200, 500), comprising: a display assembly (210, 510) coupled to a base assembly (220, 520), the base assembly (220, 520) having palm rest areas (252, 254) positioned to support a user's palms; a keyboard (222, 522) disposed on the base assembly; and a touchpad (224, 524) disposed on the base assembly (220, 520), characterised in that: the palm rest areas (252, 254) are formed by the touchpad (224, 524); and a hand location sensor (240, 545) being able to detect a hand location when a user's hand is positioned on the keyboard (222, 522), is comprised in the portable computer, wherein the portable computer (200, 500) filters each contact sensed by the touchpad (224, 524) to either accept the contact as an intentional input command, or reject the contact as unintentional, based on the hand location detected by the hand location sensor (240, 545). a display assembly (210, 510) coupled to a base assembly (220, 520), the base assembly (220, 520) having palm rest areas (252, 254) positioned to support a user's palms; a keyboard (222, 522) disposed on the base assembly; and a touchpad (224, 524) disposed on the base assembly (220, 520), characterised in that: the palm rest areas (252, 254) are formed by the touchpad (224, 524); and a hand location sensor (240, 545) being able to detect a hand location when a user's hand is positioned on the keyboard (222, 522), is comprised in the portable computer, wherein the portable computer (200, 500) filters each contact sensed by the touchpad (224, 524) to either accept the contact as an intentional input command, or reject the contact as unintentional, based on the hand location detected by the hand location sensor (240, 545). the palm rest areas (252, 254) are formed by the touchpad (224, 524); and a hand location sensor (240, 545) being able to detect a hand location when a user's hand is positioned on the keyboard (222, 522), is comprised in the portable computer, wherein the portable computer (200, 500) filters each contact sensed by the touchpad (224, 524) to either accept the contact as an intentional input command, or reject the contact as unintentional, based on the hand location detected by the hand location sensor (240, 545).
A method of indoor mushroom cultivation comprising the steps of: providing a horizontally extending bed comprising a substrate layer and a casing layer that is disposed over the substrate layer, and providing drip irrigation pipes characterised in that the drip irrigation pipes are being disposed in the casing layer. providing a horizontally extending bed comprising a substrate layer and a casing layer that is disposed over the substrate layer, and providing drip irrigation pipes characterised in that the drip irrigation pipes are being disposed in the casing layer.