mhurhangee/ep-ind-claims huggingface dataset:
Method for dynamically controlling the power supply to a piece of electrical equipment powered by a renewable energy source and an energy storage element of which the capacity is dimensioned so as to be slightly lower than the nominal capacity of the energy storage element, said nominal capacity being determined on the basis of - the longest duration of an operating cycle, - the maximum energy consumed by the equipment during the longest operating cycle, - battery performance, - system performance, the supply of power to said equipment being temporally variable according to an adjustable reference time curve, said method comprising steps of adjustment on the basis of at least one external factor and at least one internal factor, and the constraint that the integral over the considered operating cycle of said adjusted curve is less than the amount of energy which can be allocated from said energy storage element during the considered operating cycle, said external factors being physical parameters acquired by local sensors, the recalculation of the curve on the basis of the real capacity of the battery taking into account the health of said battery. - the longest duration of an operating cycle, - the maximum energy consumed by the equipment during the longest operating cycle, - battery performance, - system performance,
A toluenesulfonamide-substituted acrylamide derivative, of the following structural formula: wherein X represents diazanyl, R represents -H or-CH3, R1 represents C1∼C4 alkyl or aryl.
A method for operating a mobile device in a cabin of a vehicle as well as in an environment outside of the vehicle, wherein the environment comprises a mobile network (101, 101a) with a multiplicity of base stations (104, 105, 106; 104a, 105a, 106a), wherein the vehicle comprises a communication system, comprising a network access device, a femtocell and WiFi-hot-spot, wherein the femtocell is connected to the network access device, wherein the WiFi-Hot-spot is connected to the network access device, wherein the network access device is connected to one of the base stations (104, 105, 106; 104a, 105a, 106a) of the mobile network (101; 101a) and wherein the method comprises, on different occurrences, the steps: when moving the mobile device from the environment in the cabin of the vehicle a seamless handover of the mobile device from one of the base stations (104, 105, 106; 104a, 105a, 106a) of the mobile network (101; 101a) to the femtocell is performed, wherein the connection of the mobile device to the femtocell either is kept alive as long as the mobile device remains in the vehicle and as long as the vehicle is in standstill condition, and when a movement of the vehicle is detected a seamless handover of the mobile device from the femtocell to the WiFi-hot-spot is performed, or is kept alive only until a seamless handover of the mobile device from the femtocell to the WiFi-hot-spot is established, when moving the mobile device from the cabin of the vehicle to the environment a seamless handover of the mobile device to one of a multiplicity of base stations (104, 105, 106; 104a, 105a, 106a) of a mobile network (101; 101a) is performed, wherein when a standstill of the vehicle is detected, a seamless handover of the mobile device from the WiFi-hot-spot to the femtocell is performed. when moving the mobile device from the environment in the cabin of the vehicle a seamless handover of the mobile device from one of the base stations (104, 105, 106; 104a, 105a, 106a) of the mobile network (101; 101a) to the femtocell is performed, wherein the connection of the mobile device to the femtocell either is kept alive as long as the mobile device remains in the vehicle and as long as the vehicle is in standstill condition, and when a movement of the vehicle is detected a seamless handover of the mobile device from the femtocell to the WiFi-hot-spot is performed, or is kept alive only until a seamless handover of the mobile device from the femtocell to the WiFi-hot-spot is established, when moving the mobile device from the cabin of the vehicle to the environment a seamless handover of the mobile device to one of a multiplicity of base stations (104, 105, 106; 104a, 105a, 106a) of a mobile network (101; 101a) is performed, wherein when a standstill of the vehicle is detected, a seamless handover of the mobile device from the WiFi-hot-spot to the femtocell is performed.
A rigid core comprising: a ring-shaped core main body having a tire molding surface for molding an inner surface of a pneumatic tire; the core main body comprising a plurality of circumferentially divided core segments each movable along a tire radial direction; and each core segment comprising an outer surface forming the tire molding surface, wherein the outer surface of each core segment comprises an upper portion located radially outward with respect to a maximum width position of the core segment, and a lower portion located radially inward with respect to the maximum width position of the core segment, characterized in that the outer surface of each core segment has a surface roughness Ra of from 2.0 to 20.0 μm, and the lower portion comprises a surface roughness Ra smaller than that of the upper portion. a ring-shaped core main body having a tire molding surface for molding an inner surface of a pneumatic tire; the core main body comprising a plurality of circumferentially divided core segments each movable along a tire radial direction; and each core segment comprising an outer surface forming the tire molding surface, wherein the outer surface of each core segment comprises an upper portion located radially outward with respect to a maximum width position of the core segment, and a lower portion located radially inward with respect to the maximum width position of the core segment, characterized in that the outer surface of each core segment has a surface roughness Ra of from 2.0 to 20.0 μm, and the lower portion comprises a surface roughness Ra smaller than that of the upper portion.
A method, comprising: at an electronic device with a display and a touch-sensitive surface, wherein the device includes one or more sensors to detect intensity of contacts with the touch-sensitive surface: detecting, on the touch-sensitive surface, a gesture that includes an increase of intensity of a contact above a respective intensity threshold; and in response to detecting the gesture, triggering an event in accordance with the gesture: in accordance with a determination that the gesture includes a first number of contacts, generating a tactile output on the touch-sensitive surface; and in accordance with a determination that the gesture includes a second number of contacts different from the first number, forgoing generating the tactile output on the touch-sensitive surface and performing an operation of reducing a size of an object displayed on the display in accordance with the gesture including the second number of contacts, wherein the first number of contacts is one contact, and the second number of contacts is two contacts. detecting, on the touch-sensitive surface, a gesture that includes an increase of intensity of a contact above a respective intensity threshold; and in response to detecting the gesture, triggering an event in accordance with the gesture: in accordance with a determination that the gesture includes a first number of contacts, generating a tactile output on the touch-sensitive surface; and in accordance with a determination that the gesture includes a second number of contacts different from the first number, forgoing generating the tactile output on the touch-sensitive surface and performing an operation of reducing a size of an object displayed on the display in accordance with the gesture including the second number of contacts, in accordance with a determination that the gesture includes a first number of contacts, generating a tactile output on the touch-sensitive surface; and in accordance with a determination that the gesture includes a second number of contacts different from the first number, forgoing generating the tactile output on the touch-sensitive surface and performing an operation of reducing a size of an object displayed on the display in accordance with the gesture including the second number of contacts, wherein the first number of contacts is one contact, and the second number of contacts is two contacts.
A polyketone porous film comprising from 10 to 100 mass% of a polyketone as a copolymer of carbon monoxide and one or more olefins, wherein: said polyketone porous film has pores formed only by a polyketone, the pore diameter uniformity parameter as a value obtained by dividing the standard deviation of the pore diameter in said pore by the average pore diameter is from 0 to 1.0, and the average through hole diameter of the polyketone porous film is from 0.01 to 50 μm. said polyketone porous film has pores formed only by a polyketone, the pore diameter uniformity parameter as a value obtained by dividing the standard deviation of the pore diameter in said pore by the average pore diameter is from 0 to 1.0, and the average through hole diameter of the polyketone porous film is from 0.01 to 50 μm.
A composition comprising: carbon nanotubes having an average degree of functionalization with carboxylic acid groups and/or hydroxyl groups that is less than 3 percent by weight (wt %) based on a total weight of the carbon nanotubes; and polymer-coated metal nanoparticles bound to the carbon nanotubes, characterized in that each of the polymer-coated metal nanoparticles comprises a metallic core and a polymer layer that coats the metallic core. carbon nanotubes having an average degree of functionalization with carboxylic acid groups and/or hydroxyl groups that is less than 3 percent by weight (wt %) based on a total weight of the carbon nanotubes; and polymer-coated metal nanoparticles bound to the carbon nanotubes, characterized in that each of the polymer-coated metal nanoparticles comprises a metallic core and a polymer layer that coats the metallic core.
A method of fabricating a transducer as a cantilever, the method comprising: depositing a first piezoelectric layer on a substrate; depositing an intervening layer on the first piezoelectric layer; obtaining information indicative of a first vertical stress of the first piezoelectric layer; determining a second vertical stress that offsets the first vertical stress such that a combination of the first and second vertical stresses is a substantially zero deflection of the transducer; selecting a bias power that produces the second vertical stress; and depositing, using the selected bias power, the second piezoelectric layer on the intervening layer. depositing a first piezoelectric layer on a substrate; depositing an intervening layer on the first piezoelectric layer; obtaining information indicative of a first vertical stress of the first piezoelectric layer; determining a second vertical stress that offsets the first vertical stress such that a combination of the first and second vertical stresses is a substantially zero deflection of the transducer; selecting a bias power that produces the second vertical stress; and depositing, using the selected bias power, the second piezoelectric layer on the intervening layer.
An apparatus comprising: - an image detector for capturing an image frame (F N), - a driving unit for adjusting focusing of light onto said image detector, and - a synchronization signal generating unit, characterized in that the apparatus further comprises a first parameter register having a re-writable parameter (k TRIG), which specifies the location of a predetermined line (TRIGLN) with respect to said image frame (F N), in that said synchronization signal generating unit is configured to generate a synchronization signal (S 11) based on the timing (t TRIG) of optical exposure of said predetermined line (TRIGLN) of said image frame (F N) such that said synchronization signal (S 11) is generated in response to start of optical exposure of said predetermined line (TRIGLN), and in that said driving unit is configured to perform said adjusting in response to receiving said synchronization signal (S 11). - an image detector for capturing an image frame (F N), - a driving unit for adjusting focusing of light onto said image detector, and - a synchronization signal generating unit, characterized in that the apparatus further comprises a first parameter register having a re-writable parameter (k TRIG), which specifies the location of a predetermined line (TRIGLN) with respect to said image frame (F N), in that said synchronization signal generating unit is configured to generate a synchronization signal (S 11) based on the timing (t TRIG) of optical exposure of said predetermined line (TRIGLN) of said image frame (F N) such that said synchronization signal (S 11) is generated in response to start of optical exposure of said predetermined line (TRIGLN), and in that said driving unit is configured to perform said adjusting in response to receiving said synchronization signal (S 11).
A trimmer head arranged to be driven around a rotational axis (ax), via an interface, to rotate a trimmer line, wherein the trimmer head comprises: - a housing (1a, 1b), - the interface, - a trimmer line spool (5, 5'), and - an automatic feed mechanism, wherein the automatic feed mechanism is configured to release a trimmer line spooled around the trimmer line spool (5, 5') when the trimmer head is subjected to a change in rotational speed, via the interface, at a higher rate than a threshold rate of change in rotational speed, wherein the trimmer head comprises an inner body operably connected to the trimmer line spool (5, 5'), wherein the inner body is configured to move relative the housing (1a, 1b) when the trimmer head is subjected to said change in rotational speed, via the interface, and wherein the automatic feed mechanism is configured to release the trimmer line spooled around the trimmer line spool (5, 5') when the inner body moves relative the housing (1a, 1b), wherein the automatic feed mechanism comprises a mechanism body (7', 7") operably connected to the housing (1a, 1b) and to the inner body, characterized in that the trimmer head further comprises an actuator (9, 9')connected to the automatic feed mechanism such that a manual actuation of the actuator (9, 9') releases the trimmer line spooled around the trimmer line spool (5, 5'). - a housing (1a, 1b), - the interface, - a trimmer line spool (5, 5'), and - an automatic feed mechanism, wherein the automatic feed mechanism is configured to release a trimmer line spooled around the trimmer line spool (5, 5') when the trimmer head is subjected to a change in rotational speed, via the interface, at a higher rate than a threshold rate of change in rotational speed, wherein the trimmer head comprises an inner body operably connected to the trimmer line spool (5, 5'), wherein the inner body is configured to move relative the housing (1a, 1b) when the trimmer head is subjected to said change in rotational speed, via the interface, and wherein the automatic feed mechanism is configured to release the trimmer line spooled around the trimmer line spool (5, 5') when the inner body moves relative the housing (1a, 1b), wherein the automatic feed mechanism comprises a mechanism body (7', 7") operably connected to the housing (1a, 1b) and to the inner body, characterized in that the trimmer head further comprises an actuator (9, 9')connected to the automatic feed mechanism such that a manual actuation of the actuator (9, 9') releases the trimmer line spooled around the trimmer line spool (5, 5').
A device for conducting exhaust gas for an internal combustion engine, comprising: an exhaust pipe; and an exhaust shut-off flap device comprising at least one movable, preferably pivotable, shut-off flap, wherein the exhaust shut-off flap device is arranged downstream or upstream of the exhaust pipe and the at least one shut-off flap rests against at least one abutment surface of the exhaust pipe in a closed position of the at least one shut-off flap; wherein the exhaust pipe comprises two outlet openings or inlet openings; wherein the exhaust shut-off flap device is an exhaust brake flap device; and wherein the shut-off flap device comprises two shut-off flaps associated with the two outlet openings or inlet openings characterised in that the at least one abutment surface is comprised in a flange surface of the exhaust pipe to which the exhaust shut-off flap device is flange-mounted. an exhaust pipe; and an exhaust shut-off flap device comprising at least one movable, preferably pivotable, shut-off flap, wherein the exhaust shut-off flap device is arranged downstream or upstream of the exhaust pipe and the at least one shut-off flap rests against at least one abutment surface of the exhaust pipe in a closed position of the at least one shut-off flap; wherein the exhaust pipe comprises two outlet openings or inlet openings; wherein the exhaust shut-off flap device is an exhaust brake flap device; and wherein the shut-off flap device comprises two shut-off flaps associated with the two outlet openings or inlet openings characterised in that the at least one abutment surface is comprised in a flange surface of the exhaust pipe to which the exhaust shut-off flap device is flange-mounted.
Baking oven with a baking oven muffle with at least one pull-out guide, which has a stationary guide rail and a movable running rail, wherein on the movable running rail of the at least one pull-out guide are held two side grids (10, 10', 10") with at least one receptacle for a cooking good carrier which is arranged between the two opposite side grids (10, 10', 10"), whereby the side grids (10, 10', 10") comprise a plurality of horizontal rods which form respective receptacles for the booking good carrier, characterized in that the side grids (10, 10', 10") are shorter than the cooking good carrier by at least 20 % in a direction parallel to the longitudinal direction of the pull-out guides and in a maximum pull-out position of the at least one pull-out guide a front end of the running rail is positioned inside the baking oven muffle and the cooking good carrier can be arranged in a maximum pull-out position with a front section projecting from the baking oven muffle, while the two side grids (10, 10' 10") are still arranged completely in the baking oven muffle.
A low-pass filter (200, 300) comprising: a filter input terminal (202, 302) a filter output terminal (204, 304) a filter FET (206, 306) configured to provide a resistance between the filter input terminal and the filter output terminal; a filter capacitor (208, 308) connected between the filter output terminal and a reference terminal; a bias FET (210, 310) configured to provide a bias voltage to the filter FET; a buffer (216, 316) connected between the filter input terminal and the bias FET, the buffer configured to source a bias current for the bias FET; and an offset voltage source (220, 320) configured to contribute to the bias voltage provided to the filter FET. a filter input terminal (202, 302) a filter output terminal (204, 304) a filter FET (206, 306) configured to provide a resistance between the filter input terminal and the filter output terminal; a filter capacitor (208, 308) connected between the filter output terminal and a reference terminal; a bias FET (210, 310) configured to provide a bias voltage to the filter FET; a buffer (216, 316) connected between the filter input terminal and the bias FET, the buffer configured to source a bias current for the bias FET; and an offset voltage source (220, 320) configured to contribute to the bias voltage provided to the filter FET.
A method for producing a magnetically insensitive, highly hard, constant-modulus alloy, consisting of, by atomic weight ratio, 20-40% Co and 7 to 22% Ni, the total of Co and Ni being 42.0 to 49.5%, 5 to 13% Cr and 1 to 6% Mo, with the total of Cr and Mo being 13.5 to 16.0%, and optionally of an auxiliary element(s) 5% or less of one or more of W, V, Cu, Mn, Al, Si, Ti, Be, B, C, each, 3% or less of Nb, Ta, Au, Ag, platinum group element, Zr, Hf, total amount of the auxiliary element(s) being 0.001 to 10.0%, the total amount of sum of said Cr and Mo plus the auxiliary element(s) being 13.5 to 16.0%, the balance consisting of Fe (with the proviso that Fe is present 37% or more) and inevitable impurities, and having a <111> texture, as well as a saturation magnetic flux density of 2500 to 3500 G, a temperature coefficient of Young's modulus of (-5~+5)×10 -5 degrees C -1 as measured at 0 to 40 degrees C, and a Vickers hardness of 350 to 550, characterized in that the alloy is wrought to an appropriate shape by means of forging or hot working; homogenizing by heating to 1100 degrees C or higher and lower than the melting point, followed by cooling; subsequently, repeating wiredrawing and intermediate annealing at 800 to 950 degrees C, thereby forming a wire at a working ratio of 90% or more; subsequently rolling the wire at a rolling reduction of 20% or more, thereby obtaining a sheet; and, subsequently, heating the sheet at a temperature of 580 to 700 degrees C.
A polyarylene sulfide resin composition comprising a polyarylene sulfide resin, a dimethylpolysiloxane, a fatty acid ester, and a silane coupling agent as indispensable components.
An automated external defibrillator comprising: a high voltage generator configured to charge or discharge electric energy for giving a subject an electric shock for defibrillation; an outer housing configured to house the high voltage generator and defining an exterior of the automated external defibrillator; and a potting material containing an insulating material, wherein the high voltage generator comprises: a high voltage circuit board; and a high voltage electronic component disposed on the high voltage circuit board, wherein the potting material covers the high voltage circuit board and a terminal of the high voltage electronic component, and is in contact with the high voltage circuit board and the outer housing to fix the high voltage circuit board to the outer housing; and wherein the terminal of the high voltage electronic component is completely covered with the potting material, and the high voltage electronic component is partially exposed from the potting material. a high voltage generator configured to charge or discharge electric energy for giving a subject an electric shock for defibrillation; an outer housing configured to house the high voltage generator and defining an exterior of the automated external defibrillator; and a potting material containing an insulating material, wherein the high voltage generator comprises: a high voltage circuit board; and a high voltage electronic component disposed on the high voltage circuit board, a high voltage circuit board; and a high voltage electronic component disposed on the high voltage circuit board, wherein the potting material covers the high voltage circuit board and a terminal of the high voltage electronic component, and is in contact with the high voltage circuit board and the outer housing to fix the high voltage circuit board to the outer housing; and wherein the terminal of the high voltage electronic component is completely covered with the potting material, and the high voltage electronic component is partially exposed from the potting material.