mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling gear changes during a regenerative braking phase, on the two input shafts of a hybrid dual clutch transmission, transmitting to the wheels the torque of a heat engine under the control of the dual clutch, and the torque of an electric machine connected to the wheels by one of the two input shafts independently of the dual clutch, in which the loss of vehicle deceleration in the regenerative braking phase with the engine switched off, due to the interruption of the torque transmitted by the electric machine during a gear change on the shaft connecting the electric machine to the wheels, is compensated for by causing friction between the clutches of the transmission, characterized in that an optimum gear for this compensation ( Gear_opt ) is selected on the other input shaft based on the estimated loss of deceleration ( Accel_loss_esti_arb ) on the gears which are eligible on this other shaft, in that the optimum gear is selected from eligible gears ( Gear_vs_ena ) which are possible based on the vehicle speed, in that the eligible gears which are possible (Gear_vs_ena) are determined according to the current vehicle speed (Veh_speed) and the maximum possible speeds (Vs_max_gear) of the eligible gears, and in that the loss of deceleration due to the gear changes on the input shaft connecting the electric machine to the wheels (Accel _ loss_esti ) is calculated from the maximum compensating forces achievable by friction on the eligible gears (F_max_comp_wheel) and the force supplied to the wheels by the transmission ( F_gmp_wheel) from the electric machine.
A method of operating a storage device (100, 100a-c) including first and second memory devices and a memory controller , which are connected to a single channel (CH1), the method comprising: transmitting first data output from the first memory device to the memory controller through a data signal line in the single channel (CH1); and transmitting a command to the second memory device through the data signal line while the memory controller receives the first data, wherein a voltage level of the data signal line is based on the command and the first data of the first memory device (1 10a) is loaded on the data signal line , and the first data and the command are transmitted in both directions of the data signal line in the single channel (CH1), wherein the first data is transmitted to the memory controller at a transmission rate of a first frequency, and the command is transmitted to the second memory device at a transmission rate of a second frequency, wherein the first frequency is higher than the second frequency. transmitting first data output from the first memory device to the memory controller through a data signal line in the single channel (CH1); and transmitting a command to the second memory device through the data signal line while the memory controller receives the first data, wherein a voltage level of the data signal line is based on the command and the first data of the first memory device (1 10a) is loaded on the data signal line , and the first data and the command are transmitted in both directions of the data signal line in the single channel (CH1), wherein the first data is transmitted to the memory controller at a transmission rate of a first frequency, and the command is transmitted to the second memory device at a transmission rate of a second frequency, wherein the first frequency is higher than the second frequency.
A method for generating a chlorine dioxide gas, the method comprising continuously generating the chlorine dioxide gas from a gel composition obtained by adding a gelling activator containing a gas generating agent, a gas generation controlling agent containing a carbonate and hydrogen peroxide, a gas generation adjusting agent being at least one selected from the group consisting of sepiolite, montmorillonite, diatomaceous earth, talc, and zeolite, and a water-absorbent resin to a chlorite aqueous solution, wherein the amounts of the chlorine component in the chlorite aqueous solution, the aqueous solution component in the chlorite aqueous solution, the gas generating agent, the gas generation controlling agent, the gas generation adjusting agent, and the water-absorbent resin are respectively 2.5% by mass to 10% by mass, 50% by mass to 95% by mass, 2% by mass to 15% by mass, 0.03% by mass to 3 % by mass, 1.5 % by mass to 15% by mass, and 2.5% by mass to 20% by mass.
A feedback-based load control method for a climate control system in transport, the method comprising: monitoring a current demand from each of a plurality of DC components (210a-c) of the climate control system; determining whether the current demand for two or more of the plurality of DC components (210a-c) is in a non-constant DC format by determining for each of the plurality of DC components (210a-c) whether the current demand has a ripple current waveform in which the current demand follows a periodic waveform in a time domain; when less than two of the plurality of DC components (210a-c) have the current demand in the non-constant DC format, continuing to monitor the current demand from each of the plurality of DC components (210a-c) of the climate control system; when the current demand for two or more of the plurality of DC components (210a-c) is in the non-constant DC format, determining a synchronization pattern for supplying power to the two or more of the plurality of DC components (210a-c); and directing power to the two or more of the plurality of DC components (210a-c) in the non-constant DC format based on the synchronization pattern. monitoring a current demand from each of a plurality of DC components (210a-c) of the climate control system; determining whether the current demand for two or more of the plurality of DC components (210a-c) is in a non-constant DC format by determining for each of the plurality of DC components (210a-c) whether the current demand has a ripple current waveform in which the current demand follows a periodic waveform in a time domain; when less than two of the plurality of DC components (210a-c) have the current demand in the non-constant DC format, continuing to monitor the current demand from each of the plurality of DC components (210a-c) of the climate control system; when the current demand for two or more of the plurality of DC components (210a-c) is in the non-constant DC format, determining a synchronization pattern for supplying power to the two or more of the plurality of DC components (210a-c); and directing power to the two or more of the plurality of DC components (210a-c) in the non-constant DC format based on the synchronization pattern.
A method of manufacturing a heat sink including a base material having a surface on which a heat-radiation resin-coated film is formed, the method comprising: taking the base material (B) out of a die-casting mold after the base material is die-cast; and forming the heat-radiation resin-coated film (F) on the surface of the base material using residual heat of the base material taken out of the die-casting mold, wherein in forming the heat-radiation resin-coated film, the heat-radiation resin-coated film is formed on the surface of the base material by bonding a heat-radiation resin film to the surface of the base material, the heat-radiation resin film is bonded to the surface of the base material by interposing the heat-radiation resin film between a die for bonding having a surface shape that corresponds to the surface shape of the base material and the base material, wherein a vacuum hole for vacuum adsorption (H) is provided in the die for bonding, and the heat-radiation resin film is interposed between the die for bonding and the base material in a state in which the heat-radiation resin film is vacuum adsorbed to the die for bonding. taking the base material (B) out of a die-casting mold after the base material is die-cast; and forming the heat-radiation resin-coated film (F) on the surface of the base material using residual heat of the base material taken out of the die-casting mold, wherein in forming the heat-radiation resin-coated film, the heat-radiation resin-coated film is formed on the surface of the base material by bonding a heat-radiation resin film to the surface of the base material, the heat-radiation resin film is bonded to the surface of the base material by interposing the heat-radiation resin film between a die for bonding having a surface shape that corresponds to the surface shape of the base material and the base material, wherein a vacuum hole for vacuum adsorption (H) is provided in the die for bonding, and the heat-radiation resin film is interposed between the die for bonding and the base material in a state in which the heat-radiation resin film is vacuum adsorbed to the die for bonding.
A composition obtained by the adsorption of a liquid peroxide onto granules comprising an antioxidant and an acid scavenger.
A concentrator photovoltaic module comprising: a concentrating portion configured by arranging a plurality of concentrating lenses that concentrate sunlight; a plurality of power generating elements arranged at positions corresponding respectively to the plurality of concentrating lenses ; a plurality of secondary concentrating lenses that are provided corresponding respectively to the plurality of power generating elements and guide the sunlight concentrated by the plurality of concentrating lenses to the plurality of power generating elements; and a housing that contains the plurality of secondary concentrating lenses and the plurality of power generating elements , wherein the housing includes a resin frame body , and a metal bottom plate that is fixed to the frame body , and on an inner surface of which the plurality of secondary concentrating lenses and the plurality of power generating elements are arranged, characterized in that the housing further includes a plurality of groove portions for reducing thermal expansion of the inner surface side of the bottom plate are provided on the inner surface of the bottom plate , the bottom plate is in a rectangular shape having long sides and short sides, the plurality of groove portions are arranged along a long-side direction and a short-side direction, and an interval (W1) between a pair of the groove portions adjacent to each other in the short-side direction is narrower than an interval (W2) between a pair of the groove portions adjacent to each other in the long-side direction. a concentrating portion configured by arranging a plurality of concentrating lenses that concentrate sunlight; a plurality of power generating elements arranged at positions corresponding respectively to the plurality of concentrating lenses ; a plurality of secondary concentrating lenses that are provided corresponding respectively to the plurality of power generating elements and guide the sunlight concentrated by the plurality of concentrating lenses to the plurality of power generating elements; and a housing that contains the plurality of secondary concentrating lenses and the plurality of power generating elements , wherein the housing includes a resin frame body , and a metal bottom plate that is fixed to the frame body , and on an inner surface of which the plurality of secondary concentrating lenses and the plurality of power generating elements are arranged, characterized in that the housing further includes a plurality of groove portions for reducing thermal expansion of the inner surface side of the bottom plate are provided on the inner surface of the bottom plate , the bottom plate is in a rectangular shape having long sides and short sides, the plurality of groove portions are arranged along a long-side direction and a short-side direction, and an interval (W1) between a pair of the groove portions adjacent to each other in the short-side direction is narrower than an interval (W2) between a pair of the groove portions adjacent to each other in the long-side direction.
An ultrasonic flowmeter comprising a conduit in a support housing , the support housing forming the conduit wall, and with a measuring insert which can be inserted and removed perpendicular to the conduit into the support housing and the conduit , whereby - for introducing the measuring insert , the conduit has, perpendicularly to the direction of flow , a circular cylindrical receptacle with a diameter (Da) which is greater than the inside diameter (D) of the conduit and has a depth (T) which encompasses the interior of the conduit , and whereby - the measuring insert fits positively into the receptacle and has a passage which, when inserted, forms an extension of the interior of the conduit , characterized in that - four ultrasonic transducers are provided in a wall of the measuring insert , the transducers define at least two measuring paths , said measuring paths crossing each other in top view and - the transducers are arranged in the wall of the measuring insert in such a way that in operation the ultrasonic signals emitted and received by the ultrasonic transducers on the measuring paths have a transit time difference (t h -t r ) which is dependent on the flow velocity (v) and/or the flow rate (Q) of a fluid flowing in the conduit . - for introducing the measuring insert , the conduit has, perpendicularly to the direction of flow , a circular cylindrical receptacle with a diameter (Da) which is greater than the inside diameter (D) of the conduit and has a depth (T) which encompasses the interior of the conduit , and whereby - the measuring insert fits positively into the receptacle and has a passage which, when inserted, forms an extension of the interior of the conduit , characterized in that - four ultrasonic transducers are provided in a wall of the measuring insert , the transducers define at least two measuring paths , said measuring paths crossing each other in top view and - the transducers are arranged in the wall of the measuring insert in such a way that in operation the ultrasonic signals emitted and received by the ultrasonic transducers on the measuring paths have a transit time difference (t h -t r ) which is dependent on the flow velocity (v) and/or the flow rate (Q) of a fluid flowing in the conduit .
A vacuum cleaner comprising a cleaner main body and an electric blower , the cleaner main body including: a handle ; a dust collecting unit which communicates with a suction side of the electric blower and collects suctioned dust; a main body connection port which is provided at a front portion of the cleaner main body and communicates with the dust collecting unit ; and a power supply unit which supplies electric power to the electric blower , characterized in that : the secondary battery is positioned behind the electric blower and behind and below a gravity center position (G) of the cleaner main body , the dust collecting unit and the power supply unit are disposed on both sides which sandwich the gravity center position (G) of the cleaner main body and are positioned above and below across an axis (A) of the main body connection port , and wherein the handle is formed in a shape extending approximately along an arc which is centered at the gravity center position of the cleaner main body substantially such that the gravity center position (G) of the cleaner main body under use remains substantially unchanged in a state in which any one region is gripped. a handle ; a dust collecting unit which communicates with a suction side of the electric blower and collects suctioned dust; a main body connection port which is provided at a front portion of the cleaner main body and communicates with the dust collecting unit ; and a power supply unit which supplies electric power to the electric blower , characterized in that : the secondary battery is positioned behind the electric blower and behind and below a gravity center position (G) of the cleaner main body , the dust collecting unit and the power supply unit are disposed on both sides which sandwich the gravity center position (G) of the cleaner main body and are positioned above and below across an axis (A) of the main body connection port , and wherein the handle is formed in a shape extending approximately along an arc which is centered at the gravity center position of the cleaner main body substantially such that the gravity center position (G) of the cleaner main body under use remains substantially unchanged in a state in which any one region is gripped. the secondary battery is positioned behind the electric blower and behind and below a gravity center position (G) of the cleaner main body , the dust collecting unit and the power supply unit are disposed on both sides which sandwich the gravity center position (G) of the cleaner main body and are positioned above and below across an axis (A) of the main body connection port , and wherein the handle is formed in a shape extending approximately along an arc which is centered at the gravity center position of the cleaner main body substantially such that the gravity center position (G) of the cleaner main body under use remains substantially unchanged in a state in which any one region is gripped.
Method for ejecting a piece good from a load-receiving means , comprising the following method steps: - implementing a transport travel of the piece good on the load-receiving means by moving the load-receiving means ; - ejecting the piece good by means of an ejection device which is arranged or included on the load-receiving means and which accelerates the piece good during the transport travel in an ejection direction (a) with a vectorial component counter to the instantaneous direction of travel (v) of the load-receiving means ; wherein the piece good is ejected from the load-receiving means into a further load-receiving means which, at the time of ejection, is situated below the load-receiving means , characterized in that the load-receiving means is a driverless transport vehicle. - implementing a transport travel of the piece good on the load-receiving means by moving the load-receiving means ; - ejecting the piece good by means of an ejection device which is arranged or included on the load-receiving means and which accelerates the piece good during the transport travel in an ejection direction (a) with a vectorial component counter to the instantaneous direction of travel (v) of the load-receiving means ; wherein the piece good is ejected from the load-receiving means into a further load-receiving means which, at the time of ejection, is situated below the load-receiving means , characterized in that the load-receiving means is a driverless transport vehicle.
Oil filter arrangement for filtering oil of a vehicle, comprising: at least one filter unit for filtering the oil; and at least one connection unit comprising at least one inlet tube configured to be connected with an outlet tube of a separate oil pump unit ; whereby the oil filter arrangement is configured to be housed in an oil filter arrangement housing of the vehicle. at least one filter unit for filtering the oil; and at least one connection unit comprising at least one inlet tube configured to be connected with an outlet tube of a separate oil pump unit ; whereby the oil filter arrangement is configured to be housed in an oil filter arrangement housing of the vehicle.
A mobility device comprising: an actuator assembly including a rotating driving member ; a driven component that is driven by the rotating driving member ; and a magnetic and electrical coupling system comprising a first magnetic and electrical coupling on the actuator assembly that magnetically and electrically couples to a second magnetic and electrical coupling on the driven component ; wherein the magnetic and electrical coupling system includes a plurality of magnetic elements located as part of one or both of the first and/or second magnetic and electrical couplings ; and the first magnetic and electrical coupling includes an electrical element configured to provide an electrical connection to an opposing electrical element of the second magnetic and electrical coupling when the actuator assembly and the driven component are joined together. an actuator assembly including a rotating driving member ; a driven component that is driven by the rotating driving member ; and a magnetic and electrical coupling system comprising a first magnetic and electrical coupling on the actuator assembly that magnetically and electrically couples to a second magnetic and electrical coupling on the driven component ; wherein the magnetic and electrical coupling system includes a plurality of magnetic elements located as part of one or both of the first and/or second magnetic and electrical couplings ; and the first magnetic and electrical coupling includes an electrical element configured to provide an electrical connection to an opposing electrical element of the second magnetic and electrical coupling when the actuator assembly and the driven component are joined together.
A method comprising: after capturing a first digital image by a digital camera , identifying an appropriate view to be captured by the digital camera as a second digital image for facilitating stitching of the first digital image and the second digital image into a combined image; indicating to a user how to move the digital camera so that the digital camera is directed towards an appropriate view for capturing the second digital image; indicating to a user that movement of the digital camera should be stopped when the digital camera is directed towards the appropriate view for capturing the second digital image so that the digital camera can capture the second digital image of the appropriate view; and capturing the second digital image when the digital camera is directed towards the appropriate view, said capturing being automatically performed by the digital camera and wherein said capturing is performed in response to a detection of stopped movement or non-movement of the digital camera when the digital camera is directed towards the appropriate view. after capturing a first digital image by a digital camera , identifying an appropriate view to be captured by the digital camera as a second digital image for facilitating stitching of the first digital image and the second digital image into a combined image; indicating to a user how to move the digital camera so that the digital camera is directed towards an appropriate view for capturing the second digital image; indicating to a user that movement of the digital camera should be stopped when the digital camera is directed towards the appropriate view for capturing the second digital image so that the digital camera can capture the second digital image of the appropriate view; and capturing the second digital image when the digital camera is directed towards the appropriate view, said capturing being automatically performed by the digital camera and wherein said capturing is performed in response to a detection of stopped movement or non-movement of the digital camera when the digital camera is directed towards the appropriate view.