mhurhangee/ep-ind-claims huggingface dataset:
A thermoplastic polyester resin composition comprising 100 parts by weight of a non-liquid crystal thermoplastic polyester resin, 45 to 150 parts by weight of a thermoplastic resin that is different from the non-liquid crystal thermoplastic polyester resin and has a dielectric loss tangent of not more than 0.005 when measured at a frequency of 5.8 GHz by the cavity resonance perturbation method, 2 to 20 parts by weight of a compatibilizer having at least one reactive functional group selected from epoxy, acid anhydride, oxazoline, isocyanate, and carbodiimide groups, and 0.2 to 5 parts by weight of at least one compound selected from tertiary amines, amidine compounds, organic phosphines and salts thereof, imidazoles, and boron compounds, wherein the sum of the thermoplastic resin and the compatibilizer is in the range of 50 to 150 parts by weight and the weight ratio / of the thermoplastic resin to the compatibilizer is in the range of 8 to 50, wherein the non-liquid crystal thermoplastic polyester resin is at least one selected from the group consisting of polyethylene terephthalate, polytrimethylene terephthalate, polybutylene terephthalate, polybutylene (isophthalate/terephthalate), polybutylene (decane dicarboxylate/terephthalate), polybutylene (terephthalate/naphthalate), poly(butylene/ethylene terephthalate), and polybutylene (terephthalate/sebacate), and wherein the thermoplastic resin is at least one thermoplastic resin selected from polyolefin, liquid crystal polyester, polyphenylene sulfide, polystyrene, and polyphenylene ether resins. wherein the non-liquid crystal thermoplastic polyester resin is at least one selected from the group consisting of polyethylene terephthalate, polytrimethylene terephthalate, polybutylene terephthalate, polybutylene (isophthalate/terephthalate), polybutylene (decane dicarboxylate/terephthalate), polybutylene (terephthalate/naphthalate), poly(butylene/ethylene terephthalate), and polybutylene (terephthalate/sebacate), and wherein the thermoplastic resin is at least one thermoplastic resin selected from polyolefin, liquid crystal polyester, polyphenylene sulfide, polystyrene, and polyphenylene ether resins.
A rubber crawler comprising: an endless rubber body that is entrained about plural wheels; plural rubber projections that are disposed on the rubber body and spaced apart from one another in a rubber body circumferential direction, project toward an inner peripheral side of the rubber body, and come into contact with the wheels to limit the movement of the wheels in a rubber body width direction; characterised in that, a low-hardness rubber portion that configures part of an inner peripheral surface of the rubber body, is disposed between mutually adjacent rubber projections, and is formed by a rubber having a lower hardness than the rubber projection; and wherein regions of the rubber body on rubber body width direction outer sides of the low-hardness rubber portion are formed by a rubber having a lower hardness than the low-hardness rubber portion. an endless rubber body that is entrained about plural wheels; plural rubber projections that are disposed on the rubber body and spaced apart from one another in a rubber body circumferential direction, project toward an inner peripheral side of the rubber body, and come into contact with the wheels to limit the movement of the wheels in a rubber body width direction; characterised in that, a low-hardness rubber portion that configures part of an inner peripheral surface of the rubber body, is disposed between mutually adjacent rubber projections, and is formed by a rubber having a lower hardness than the rubber projection; and wherein regions of the rubber body on rubber body width direction outer sides of the low-hardness rubber portion are formed by a rubber having a lower hardness than the low-hardness rubber portion.
A transmission mechanism, comprising: a crankshaft; a main shaft to which drive force of the crankshaft is transmitted to be rotated; a clutch mechanism part for disconnecting and connecting the drive force transmitted to the main shaft from the crankshaft; and a rod part (54, 81) connected to the clutch mechanism part, the rod part (54, 81) being movable in an axial direction to actuate the clutch mechanism part so as to disconnect and connect the drive force transmitted to the main shaft from the crankshaft, wherein the rod part (54, 81) includes a pressing part, characterized in that the pressing part of the rod part (54, 81) is configured to press one end face of the main shaft when the clutch mechanism part is actuated so as to disconnect the drive force transmitted to the main shaft from the crankshaft. a crankshaft; a main shaft to which drive force of the crankshaft is transmitted to be rotated; a clutch mechanism part for disconnecting and connecting the drive force transmitted to the main shaft from the crankshaft; and a rod part (54, 81) connected to the clutch mechanism part, the rod part (54, 81) being movable in an axial direction to actuate the clutch mechanism part so as to disconnect and connect the drive force transmitted to the main shaft from the crankshaft, wherein the rod part (54, 81) includes a pressing part, characterized in that the pressing part of the rod part (54, 81) is configured to press one end face of the main shaft when the clutch mechanism part is actuated so as to disconnect the drive force transmitted to the main shaft from the crankshaft.
Hose which on its outward-facing layer contains an additional coating, wherein the coating contains at least one polymer and at least one bitterant, characterized in that the bitterant is denatonium benzoate and in that the polymer comprises at least one acrylate.
A method for creating a binding between a keypad and a lighting controller comprising: executing a configuration application, app, on a mobile device having a touch-sensitive display screen, a user interface of the configuration app being displayed to a user on the touch-sensitive display screen; displaying, in the user interface, a user-selectable option to create a binding between a lighting controller and a keypad; in response to selection of the option, displaying in the user interface at least one user-selectable location for a keypad which is not bound to the lighting controller; receiving a selection of a location; detecting a press of at least one key on at least one keypad; displaying, in the user interface, a user-selectable entry corresponding to the at least one keypad; receiving a user selection of the entry; and creating a binding between the at least one keypad and the lighting controller. executing a configuration application, app, on a mobile device having a touch-sensitive display screen, a user interface of the configuration app being displayed to a user on the touch-sensitive display screen; displaying, in the user interface, a user-selectable option to create a binding between a lighting controller and a keypad; in response to selection of the option, displaying in the user interface at least one user-selectable location for a keypad which is not bound to the lighting controller; receiving a selection of a location; detecting a press of at least one key on at least one keypad; displaying, in the user interface, a user-selectable entry corresponding to the at least one keypad; receiving a user selection of the entry; and creating a binding between the at least one keypad and the lighting controller.
A method of determining the impedance of an energy storage element of an electric battery, comprising the steps of: - applying to the element a predetermined sequence of current variations; - measuring the voltage variations across the element as a response to the application of said sequence; and determining the impedance of the element based on the measured voltage variations, wherein said sequence is a non-binary sequence obtained by convolution of a pseudo-random binary sequence with coefficients of a finite impulse response filter. - applying to the element a predetermined sequence of current variations; - measuring the voltage variations across the element as a response to the application of said sequence; and
An internal combustion engine comprising: a valve controller which is configured to close inlet valves of the internal combustion engine at Miller or Atkinson closing times, wherein the closing times of the valve controller are invariable; an electrified exhaust-gas turbocharger having an electric machine which is operable selectively as a motor or generator; and a control unit which is configured to operate the electric machine of the electrified exhaust-gas turbocharger as a motor in a first load range of the internal combustion engine and to operate same as a generator in a second load range which corresponds to greater loads of the internal combustion engine than the first load range, characterized in that the valve controller comprises a camshaft driven by a crankshaft of the internal combustion engine, said camshaft determining the closing times, wherein the camshaft sets the closing times in a uniform manner for the entire load range of the internal combustion engine, wherein the control unit is configured to not operate the electric machine of the electrified exhaust-gas turbocharger as a generator in the first load range and to operate the electric machine of the electrified exhaust-gas turbocharger as a generator only in the second load range. a valve controller which is configured to close inlet valves of the internal combustion engine at Miller or Atkinson closing times, wherein the closing times of the valve controller are invariable; an electrified exhaust-gas turbocharger having an electric machine which is operable selectively as a motor or generator; and a control unit which is configured to operate the electric machine of the electrified exhaust-gas turbocharger as a motor in a first load range of the internal combustion engine and to operate same as a generator in a second load range which corresponds to greater loads of the internal combustion engine than the first load range, characterized in that the valve controller comprises a camshaft driven by a crankshaft of the internal combustion engine, said camshaft determining the closing times, wherein the camshaft sets the closing times in a uniform manner for the entire load range of the internal combustion engine, wherein the control unit is configured to not operate the electric machine of the electrified exhaust-gas turbocharger as a generator in the first load range and to operate the electric machine of the electrified exhaust-gas turbocharger as a generator only in the second load range.
A device arranged for providing audio and/or video content to a media rendering device over a physical connection and further arranged for controlling one or more wireless lighting devices (31,32) of a plurality of wireless lighting devices to render light effects based on an analysis of said audio and/or video content while said audio and/or video content is being rendered on said media rendering device, said device comprising: at least one input interface; at least one output interface; and characterized in that the at least one processor is configured to: - obtain distance information via said at least one input interface, said distance information being indicative of distances between said device and each of said plurality of wireless lighting devices, - select, based on said distance information, said one or more wireless lighting devices (31,32) from said plurality of wireless lighting devices, such that said distance between said device and each of said selected one or more wireless lighting devices (31,32) do not exceed a threshold, - perform said analysis of said audio and/or video content, - determine said light effects based on said analysis of said audio and/or video content, and - control, via said at least one output interface, said selected one or more wireless lighting devices (31,32) to render said light effects. at least one input interface; at least one output interface; and characterized in that the at least one processor is configured to: - obtain distance information via said at least one input interface, said distance information being indicative of distances between said device and each of said plurality of wireless lighting devices, - select, based on said distance information, said one or more wireless lighting devices (31,32) from said plurality of wireless lighting devices, such that said distance between said device and each of said selected one or more wireless lighting devices (31,32) do not exceed a threshold, - perform said analysis of said audio and/or video content, - determine said light effects based on said analysis of said audio and/or video content, and - control, via said at least one output interface, said selected one or more wireless lighting devices (31,32) to render said light effects. - obtain distance information via said at least one input interface, said distance information being indicative of distances between said device and each of said plurality of wireless lighting devices, - select, based on said distance information, said one or more wireless lighting devices (31,32) from said plurality of wireless lighting devices, such that said distance between said device and each of said selected one or more wireless lighting devices (31,32) do not exceed a threshold, - perform said analysis of said audio and/or video content, - determine said light effects based on said analysis of said audio and/or video content, and - control, via said at least one output interface, said selected one or more wireless lighting devices (31,32) to render said light effects.
A heating device including a heater, a pressure unit pressed by the heater, a main power supply, an auxiliary power supply, a charger, and a switching unit, characterized in that each of the heater and the pressure unit includes a main heating element (2a, 22a) generating heat with power supplied from the main power supply, and an auxiliary heating element (2b, 22b) having a resistance different from a resistance of the main heating element (2a, 22a) and generating heat with power supplied from the auxiliary power supply, respectively, the auxiliary power supply includes a capacitor with a sufficiently large capacitance to allow charging and discharging of the capacitor and supplies to the auxiliary heating elements (2b, 22b) of the heater and the pressure unit a current that is different from a current supplied from the main power supply to the main heating element (2a, 22a), the charger charges the capacitor of the auxiliary power supply with the power supplied from the main power supply, and the switching unit selectively allows one of the supplying of the power to the auxiliary heating elements (2b, 22b) of the heater and the pressure unit by the auxiliary power supply and the charging of the capacitor of the auxiliary power supply by the charger, further characterized in that the resistance of the heating element of the heater and the resistance of the heating element of the pressure unit are different from each other.
Aerosolized interferon-γ for use in a method for treating a pulmonary disease in a subject suffering from a pulmonary disease, the method comprising administering aerosolized interferon-γ by slow and deep breathing characterized by a duty cycle of greater than 0.5 thereby causing a therapeutically effective amount of interferon-γ to be deposited in the periphery of the lungs of the subject.
A fire-retaining container comprising: a first fire-retarding layer (12, 26, 34, 38); and at least one of a second fire-retarding layer (14, 28) connected to the first fire-retarding layer; and a reinforcement material (36, 40) reinforcing the first fire-retarding layer, and further comprising: a water-repellant layer, wherein the water-repellant layer comprises silicone. a first fire-retarding layer (12, 26, 34, 38); and at least one of a second fire-retarding layer (14, 28) connected to the first fire-retarding layer; and a reinforcement material (36, 40) reinforcing the first fire-retarding layer, and further comprising: a water-repellant layer, wherein the water-repellant layer comprises silicone. a second fire-retarding layer (14, 28) connected to the first fire-retarding layer; and a reinforcement material (36, 40) reinforcing the first fire-retarding layer, and further comprising: a water-repellant layer, wherein the water-repellant layer comprises silicone.
An electrically isolated driving device comprising: a driven body made of first metallic material and having a driven end configured to interface with a fastener; a drive body made of a second metallic material and having a drive end configured to receive a protrusion of a driving tool; and a body portion over-molding substantially all portions of the drive body and the driven body other than the drive end and the driven end, respectively, wherein the drive end of the drive body and the driven end of the driven body face away from each other, characterized in that the drive body and driven body each include axial grooves, and in that the axial grooves of the drive body each extend substantially perpendicular to an annular groove formed in the drive body from the annular groove formed in the drive body to the drive end, and the axial grooves of the driven body each extend substantially perpendicularly to an annular groove formed in the driven body from the annular groove formed in the driven body to the driven end. a driven body made of first metallic material and having a driven end configured to interface with a fastener; a drive body made of a second metallic material and having a drive end configured to receive a protrusion of a driving tool; and a body portion over-molding substantially all portions of the drive body and the driven body other than the drive end and the driven end, respectively, wherein the drive end of the drive body and the driven end of the driven body face away from each other, characterized in that the drive body and driven body each include axial grooves, and in that the axial grooves of the drive body each extend substantially perpendicular to an annular groove formed in the drive body from the annular groove formed in the drive body to the drive end, and the axial grooves of the driven body each extend substantially perpendicularly to an annular groove formed in the driven body from the annular groove formed in the driven body to the driven end.
A damage assessment arrangement for assessing the extent of damage to a lightning receptor electrically connected to a down conductor of a wind turbine rotor blade, which damage assessment arrangement comprises - a measurement pulse module (10, 11) comprising a pulse generator arranged to transmit a pulse into one end of the down conductor and a return signal detector arranged to detect the return signal (R, R1, R2, R3); - a return signal analysis module configured to determine the extent of alteration of the return signal (P R) relative to an expected return signal (R E); and - a damage estimation module configured to relate the relative extent of alteration to a measure of damage (D good, D mild, D poor, D fail) to a receptor. - a measurement pulse module (10, 11) comprising a pulse generator arranged to transmit a pulse into one end of the down conductor and a return signal detector arranged to detect the return signal (R, R1, R2, R3); - a return signal analysis module configured to determine the extent of alteration of the return signal (P R) relative to an expected return signal (R E); and - a damage estimation module configured to relate the relative extent of alteration to a measure of damage (D good, D mild, D poor, D fail) to a receptor.
Method for producing an electronic sub-assembly (36, 40) with the following steps: - providing an electrically conducting starting substrate; - placing on at least one first layer of electrically insulating material; - mounting at least one component on the first layer of electrically insulating material (14; 42, 44); - laying a first electrically conducting layer onto the first layer of electrically insulating material, with at least one recess (18, 18'), the at least one recess (18, 18') being designed in its arrangement and dimensions to match the at least one component (14; 42, 44) in such a way that the electronic component (14; 42, 44) is arranged in the recess (18, 18'), wherein the step of mounting at least one component (14; 42, 44) is followed by the step of laying the first electrically conducting layer, the at least one component (14; 42, 44) having an elevated temperature at the moment of mounting, or in which the step of laying the first electrically conducting layer is followed by the step of mounting at least one component (14; 42, 44), the first electrically conducting layer having an elevated temperature at the moment of mounting, - applying at least one second layer of electrically insulating material and at least one second electrically conducting layer to the component, and - pressing the sequence of layers thus created. - providing an electrically conducting starting substrate; - placing on at least one first layer of electrically insulating material; - mounting at least one component on the first layer of electrically insulating material (14; 42, 44); - laying a first electrically conducting layer onto the first layer of electrically insulating material, with at least one recess (18, 18'), the at least one recess (18, 18') being designed in its arrangement and dimensions to match the at least one component (14; 42, 44) in such a way that the electronic component (14; 42, 44) is arranged in the recess (18, 18'), wherein the step of mounting at least one component (14; 42, 44) is followed by the step of laying the first electrically conducting layer, the at least one component (14; 42, 44) having an elevated temperature at the moment of mounting, or in which the step of laying the first electrically conducting layer is followed by the step of mounting at least one component (14; 42, 44), the first electrically conducting layer having an elevated temperature at the moment of mounting, - applying at least one second layer of electrically insulating material and at least one second electrically conducting layer to the component, and - pressing the sequence of layers thus created.
A thermoplastic composition comprising: A) 25 to 95 parts by weight of a first polycarbonate consisting essentially of; a polycarbonate having the formula: wherein the molar ratio of x to y is 25:75 to 100:0 B) 5 to 75 parts by weight of a polyester-polycarbonate having the formula wherein R 1 is a C 6-30 aromatic group, each R f is independently C 1-12 alkyl, or halogen, u is 0 to 4, the molar ratio of m to n is 95:5 to 10:90, and C) 0 to 65 parts by weight of a second polycarbonate, wherein the first polycarbonate and second polycarbonate are not identical, and the sum of the parts by weight of the first polycarbonate, the polyester-polycarbonate, and the second polycarbonate is 100 parts by weight. A) 25 to 95 parts by weight of a first polycarbonate consisting essentially of; a polycarbonate having the formula: wherein the molar ratio of x to y is 25:75 to 100:0 B) 5 to 75 parts by weight of a polyester-polycarbonate having the formula wherein R 1 is a C 6-30 aromatic group, each R f is independently C 1-12 alkyl, or halogen, u is 0 to 4, the molar ratio of m to n is 95:5 to 10:90, and C) 0 to 65 parts by weight of a second polycarbonate, wherein the first polycarbonate and second polycarbonate are not identical, and the sum of the parts by weight of the first polycarbonate, the polyester-polycarbonate, and the second polycarbonate is 100 parts by weight.