mhurhangee/patent-ind-claim-en huggingface dataset:
A child safety seat comprising: a base configured to be operably coupled to a vehicle seat; a seat shell configured to receive and secure a child therein, the seat shell being operably coupled to the base such that the seat shell is alternately movable between, and lockable in, a plurality of positions relative to the base; and a multi-functional energy absorber for a child safety seat , disposed between the base and the seat shell , the multi-functional energy absorber comprising: a coupling member configured to be affixed to a frame of a seat shell of the child safety seat; and an arcuate member operably coupled to the coupling member at respective opposing ends thereof, the arcuate member being configured to slidingly engage a support surface of a base of the child safety seat when the child safety seat is in an unlocked state of the child safety seat, wherein the seat shell is configured to be locked at a selected position relative to the base responsive to affixing a portion of the base to the arcuate member in a locked state of the child safety seat, wherein the multi-functional energy absorber is configured to absorb impact energy from more than one direction. a base configured to be operably coupled to a vehicle seat; a seat shell configured to receive and secure a child therein, the seat shell being operably coupled to the base such that the seat shell is alternately movable between, and lockable in, a plurality of positions relative to the base; and a multi-functional energy absorber for a child safety seat , disposed between the base and the seat shell , the multi-functional energy absorber comprising: a coupling member configured to be affixed to a frame of a seat shell of the child safety seat; and an arcuate member operably coupled to the coupling member at respective opposing ends thereof, the arcuate member being configured to slidingly engage a support surface of a base of the child safety seat when the child safety seat is in an unlocked state of the child safety seat, wherein the seat shell is configured to be locked at a selected position relative to the base responsive to affixing a portion of the base to the arcuate member in a locked state of the child safety seat, wherein the multi-functional energy absorber is configured to absorb impact energy from more than one direction. a coupling member configured to be affixed to a frame of a seat shell of the child safety seat; and an arcuate member operably coupled to the coupling member at respective opposing ends thereof, the arcuate member being configured to slidingly engage a support surface of a base of the child safety seat when the child safety seat is in an unlocked state of the child safety seat, wherein the seat shell is configured to be locked at a selected position relative to the base responsive to affixing a portion of the base to the arcuate member in a locked state of the child safety seat, wherein the multi-functional energy absorber is configured to absorb impact energy from more than one direction.
An in vitro method for producing pluripotent cells from somatic cells comprising a step of bringing bacteria having fermentation ability into contact with somatic cells, wherein the bacteria having fermentation ability are lactic acid bacteria or Bacillus subtilis var. natto.
An outdoor unit of a refrigeration cycle apparatus, the outdoor unit being configured to be installed in an external-wall internal space of a structure, the outdoor unit comprising: a casing ; a heat exchanger accommodated in the casing : the outdoor unit characterised by further compring: a first air-sending device configured to cause air to pass through the heat exchanger and discharge the air to the external-wall internal space ; a second air-sending device configured to suck the air discharged to the external-wall internal space by the first air-sending device and discharge the air to an outside of the structure; and a divider that divides an inside of the casing into a first air passage and a second air passage , the heat exchanger and the first air-sending device being disposed in the first air passage , the second air-sending device being disposed in the second air passage . a casing ; a heat exchanger accommodated in the casing : the outdoor unit characterised by further compring: a first air-sending device configured to cause air to pass through the heat exchanger and discharge the air to the external-wall internal space ; a second air-sending device configured to suck the air discharged to the external-wall internal space by the first air-sending device and discharge the air to an outside of the structure; and a divider that divides an inside of the casing into a first air passage and a second air passage , the heat exchanger and the first air-sending device being disposed in the first air passage , the second air-sending device being disposed in the second air passage . a first air-sending device configured to cause air to pass through the heat exchanger and discharge the air to the external-wall internal space ; a second air-sending device configured to suck the air discharged to the external-wall internal space by the first air-sending device and discharge the air to an outside of the structure; and a divider that divides an inside of the casing into a first air passage and a second air passage , the heat exchanger and the first air-sending device being disposed in the first air passage , the second air-sending device being disposed in the second air passage .
A method for wireless communications by a user equipment, UE, comprising: determining system information, SI, desired by the UE is not currently being broadcast; sending , in response to the determination, a first indication to request the SI; and characterized by : in response to the UE not receiving the requested SI for a period of time, sending a second indication to indicate the UE has not received the requested SI after the time period, wherein the time period corresponds to a configured number of a plurality of attempts to receive the requested SI based on an expected plurality of instances of transmissions of the requested SI in response to the first indication. determining system information, SI, desired by the UE is not currently being broadcast; sending , in response to the determination, a first indication to request the SI; and characterized by : in response to the UE not receiving the requested SI for a period of time, sending a second indication to indicate the UE has not received the requested SI after the time period, wherein the time period corresponds to a configured number of a plurality of attempts to receive the requested SI based on an expected plurality of instances of transmissions of the requested SI in response to the first indication.
A method for heating a passenger compartment of a plug-in electric vehicle that comprises components such as an electric drive motor , a rechargeable battery for supplying the electric motor , a power electronics unit for providing and regulating electrical power between the rechargeable battery and the electric drive motor , possibly an internal-combustion engine , and at least one electric heating element for heating one of the components , characterized in, that the at least one electric heating element is in mechanical contact with the respective component , and that - in a standstill phase of the plug-in electric vehicle , at least one of the components is heated , at least partly, to a predefined temperature by means of externally supplied electrical energy and the at least one electric heating element , and that, - in an operating phase of the plug-in electric vehicle , thermal energy is conducted from the at least one component to the passenger compartment. - in a standstill phase of the plug-in electric vehicle , at least one of the components is heated , at least partly, to a predefined temperature by means of externally supplied electrical energy and the at least one electric heating element , and that, - in an operating phase of the plug-in electric vehicle , thermal energy is conducted from the at least one component to the passenger compartment.
Use of an additive for hydraulic binder comprising: - at least a dialkanolamine comprising from 2 to 8 carbon atoms, and - at least a polyol preferably chosen from a diol, a triol, a tetraol and mixtures thereof, to prevent the formation of rust-colored stains at the surface of a hydraulic composition. - at least a dialkanolamine comprising from 2 to 8 carbon atoms, and - at least a polyol preferably chosen from a diol, a triol, a tetraol and mixtures thereof, to prevent the formation of rust-colored stains at the surface of a hydraulic composition.
An aircraft environmental control system comprising: a fresh air input and a RAM air input, heat exchanger means for receiving fresh air from the fresh air input and RAM air from the RAM air input and using RAM air to cool the fresh air, and means for providing the cooled fresh air to a cabin of the aircraft; the system further comprising means for feeding back exhaust air emitted from the cabin of the aircraft to combine with the RAM air the combined exhaust air and RAM air undergoing heat exchange with the fresh air in the heat exchanger means to further cool the fresh air; the system further including a controller to control the ratio of fed-back exhaust air and RAM air based on the temperature and/or pressure of the exhaust air, to cool the fresh air. a fresh air input and a RAM air input, heat exchanger means for receiving fresh air from the fresh air input and RAM air from the RAM air input and using RAM air to cool the fresh air, and means for providing the cooled fresh air to a cabin of the aircraft; the system further comprising means for feeding back exhaust air emitted from the cabin of the aircraft to combine with the RAM air the combined exhaust air and RAM air undergoing heat exchange with the fresh air in the heat exchanger means to further cool the fresh air; the system further including a controller to control the ratio of fed-back exhaust air and RAM air based on the temperature and/or pressure of the exhaust air, to cool the fresh air.
An information processing apparatus , comprising: a search image acquisition unit that acquires a plurality of enlarged images at focal positions different from each other; a first feature amount calculation unit that obtains a direct current component and a dynamic range of an alternating current component of pixel values for each of a plurality of blocks forming each of the plurality of enlarged images and obtains, for each of the plurality of enlarged images, a first feature amount based on a sum of the dynamic range values associated with one or more of the blocks which meet predetermined criteria; and an in-focus position determination unit that determines an in-focus position of each enlarged image based on the first feature amount, wherein the predetermined criteria comprise a first condition in which the dynamic range of the alternating current component exceeds a first predetermined threshold and a second condition in which the direct current component exceeds a second predetermined threshold. a search image acquisition unit that acquires a plurality of enlarged images at focal positions different from each other; a first feature amount calculation unit that obtains a direct current component and a dynamic range of an alternating current component of pixel values for each of a plurality of blocks forming each of the plurality of enlarged images and obtains, for each of the plurality of enlarged images, a first feature amount based on a sum of the dynamic range values associated with one or more of the blocks which meet predetermined criteria; and obtains a direct current component and a dynamic range of an alternating current component of pixel values for each of a plurality of blocks forming each of the plurality of enlarged images and obtains, for each of the plurality of enlarged images, a first feature amount based on a sum of the dynamic range values associated with one or more of the blocks which meet predetermined criteria; and an in-focus position determination unit that determines an in-focus position of each enlarged image based on the first feature amount, wherein the predetermined criteria comprise a first condition in which the dynamic range of the alternating current component exceeds a first predetermined threshold and a second condition in which the direct current component exceeds a second predetermined threshold.
A frequency detection circuit comprising: a first signal source for outputting a first clock signal; a second signal source for outputting a second clock signal having a same frequency as but a different phase from those of the first clock signal; a first sample hold circuit for undersampling a reception signal using the first clock signal, and outputting the undersampled reception signal as an output signal; a second sample hold circuit for undersampling the reception signal using the second clock signal, and outputting the undersampled reception signal as an output signal; and a frequency calculating circuit for calculating a frequency of the reception signal using a phase difference between the output signals of the first sample hold circuit and the second sample hold circuit , wherein the frequency calculating circuit detects a frequency of the output signal of the first sample hold circuit , characterised in that the frequency calculation circuit is configured to calculate an order of undersampling with respect to the reception signal using the phase difference, and to calculate the frequency of the reception signal from the calculated order and the detected frequency. a first signal source for outputting a first clock signal; a second signal source for outputting a second clock signal having a same frequency as but a different phase from those of the first clock signal; a first sample hold circuit for undersampling a reception signal using the first clock signal, and outputting the undersampled reception signal as an output signal; a second sample hold circuit for undersampling the reception signal using the second clock signal, and outputting the undersampled reception signal as an output signal; and a frequency calculating circuit for calculating a frequency of the reception signal using a phase difference between the output signals of the first sample hold circuit and the second sample hold circuit , wherein the frequency calculating circuit detects a frequency of the output signal of the first sample hold circuit , characterised in that the frequency calculation circuit is configured to calculate an order of undersampling with respect to the reception signal using the phase difference, and to calculate the frequency of the reception signal from the calculated order and the detected frequency.
A battery cell , comprising: - a prismatic container being generally rectangular in shape and having an opening ; - a lid configured to couple to the prismatic container to seal the opening ; - a positive terminal assembly disposed on the lid ; - a negative terminal assembly disposed on the lid , wherein the negative terminal assembly comprises a top gasket disposed on a top surface of the lid and a bottom gasket disposed on a bottom surface of the lid , wherein the top and bottom gaskets are configured to swage a negative terminal of the negative terminal assembly to the lid and electrically insulate the negative terminal from the lid , and the top gasket and the bottom gasket are separate pieces; and - an electrode assembly having a negative coil and a positive coil , the positive coil of the electrode assembly being in conductive contact with the prismatic container such that the prismatic container and lid are positively polarized. - a prismatic container being generally rectangular in shape and having an opening ; - a lid configured to couple to the prismatic container to seal the opening ; - a positive terminal assembly disposed on the lid ; - a negative terminal assembly disposed on the lid , wherein the negative terminal assembly comprises a top gasket disposed on a top surface of the lid and a bottom gasket disposed on a bottom surface of the lid , wherein the top and bottom gaskets are configured to swage a negative terminal of the negative terminal assembly to the lid and electrically insulate the negative terminal from the lid , and the top gasket and the bottom gasket are separate pieces; and - an electrode assembly having a negative coil and a positive coil , the positive coil of the electrode assembly being in conductive contact with the prismatic container such that the prismatic container and lid are positively polarized.
A method for producing a composite material , in particular a printed circuit board, wherein the composite material has a flat base material , namely a ceramic, to which an additional layer , namely a metallization, is applied on one or both sides by means of a solder layer , characterized in that : - providing the base material , the base material having a first surface (A1) on at least one side; - providing the additional layer and arranging the solder layer between a second surface (A2) of the additional layer and the first surface (A1) in such a way that, when the additional layer is applied to the first surface (A1), the first surface (A1) of the base material is flatly covered with the solder layer , wherein a thickness of the solder layer between the base material and the additional layer is smaller than 7 μm; - wherein the solder layer is applied to the second surface (A2) of the additional layer by roll cladding, by means of ∘ first rolling of a solder material to produce a solder tape and applying the solder tape to the second surface (A2) of the additional layer ; and ∘ second rolling of the additional layer , being cladded in such way, such that the thickness of the solder layer is less than 7 μm, and - heating the base material and the additional layer arranged on the first surface (A1) for at least partially melting the solder layer and bonding the base material to the at least one additional layer . - providing the base material , the base material having a first surface (A1) on at least one side; - providing the additional layer and arranging the solder layer between a second surface (A2) of the additional layer and the first surface (A1) in such a way that, when the additional layer is applied to the first surface (A1), the first surface (A1) of the base material is flatly covered with the solder layer , wherein a thickness of the solder layer between the base material and the additional layer is smaller than 7 μm; - wherein the solder layer is applied to the second surface (A2) of the additional layer by roll cladding, by means of ∘ first rolling of a solder material to produce a solder tape and applying the solder tape to the second surface (A2) of the additional layer ; and ∘ second rolling of the additional layer , being cladded in such way, such that the thickness of the solder layer is less than 7 μm, and ∘ first rolling of a solder material to produce a solder tape and applying the solder tape to the second surface (A2) of the additional layer ; and ∘ second rolling of the additional layer , being cladded in such way, such that the thickness of the solder layer is less than 7 μm, and - heating the base material and the additional layer arranged on the first surface (A1) for at least partially melting the solder layer and bonding the base material to the at least one additional layer .
Submarine with a reformer, the reformer having a reformer housing, the reformer having at least one first cooler for cooling the air in the reformer housing, the at least one first cooler being arranged in the interior of the reformer housing, the reformer having at least one first fan, the at least one first fan being designed to pass the air through the at least one first cooler, the reformer having at least one first sensor for a first gas, characterized in that the at least one first sensor is arranged at the gas outlet of the at least one first fan or of the at least one first cooler, the reformer having at least one second sensor for a second gas, the at least one second sensor being arranged at the gas outlet of the at least one first fan or of the at least one first cooler, in that the at least one first sensor is arranged at the gas outlet of the at least one first fan or of the at least one first cooler, the reformer having at least one second sensor for a second gas, the at least one second sensor being arranged at the gas outlet of the at least one first fan or of the at least one first cooler, the submarine having an evaluation unit, the evaluation unit having information about the sensitivity of the first sensor for the second gas and information about the sensitivity of the second sensor for the first gas.
A disconnection detection circuit for a bridge circuit, comprising: a sensor element resistor whose resistance value varies depending on a physical quantity; a bridge circuit composed ofa plurality of resistors including the sensor element resistor; an output terminal through which an intermediate voltage of the bridge circuit is fetched into outside; and a bridge output detection circuit that detects the intermediate voltage fetched through the output terminal, the disconnection detection circuit for a bridge circuit being connected to the output terminal, wherein the disconnection detection circuit comprises a switching means that, when the disconnection detecting means detects a disconnection, fixes the output of the bridge output detection circuit to a supply voltage or ground voltage; a conducting means that causes a current to flow from the output terminal of the bridge circuit to a predetermined potential, wherein the conducting means is connected to the output terminal and formed with a current mirror circuit; a potential difference detection means that detects a potential difference between the potential at the output terminal of the bridge circuit and the predetermined potential; and a disconnection detecting means that detects a disconnection on the basis of the output of the potential difference detection means. a sensor element resistor whose resistance value varies depending on a physical quantity; a bridge circuit composed ofa plurality of resistors including the sensor element resistor; an output terminal through which an intermediate voltage of the bridge circuit is fetched into outside; and a bridge output detection circuit that detects the intermediate voltage fetched through the output terminal, the disconnection detection circuit for a bridge circuit being connected to the output terminal, wherein the disconnection detection circuit comprises a switching means that, when the disconnection detecting means detects a disconnection, fixes the output of the bridge output detection circuit to a supply voltage or ground voltage; a conducting means that causes a current to flow from the output terminal of the bridge circuit to a predetermined potential, wherein the conducting means is connected to the output terminal and formed with a current mirror circuit; a potential difference detection means that detects a potential difference between the potential at the output terminal of the bridge circuit and the predetermined potential; and a disconnection detecting means that detects a disconnection on the basis of the output of the potential difference detection means.
A bonded-magnet injection molding device comprising: an injection die in which a gate through which a molten bonded-magnet material is injected into a hollow portion in a target object is formed, wherein the injection die is provided with a magnetic-flux applying unit , characterized in that the magnetic-flux applying unit applies a magnetic flux into the gate . an injection die in which a gate through which a molten bonded-magnet material is injected into a hollow portion in a target object is formed, wherein the injection die is provided with a magnetic-flux applying unit , characterized in that the magnetic-flux applying unit applies a magnetic flux into the gate .