mhurhangee/patent-ind-claim-en huggingface dataset:
Control facility for a vehicle , which is equipped with a fuel cell and a storage facility and can travel on a predetermined section of track , wherein the storage facility can be charged with the output current (I) of the fuel cell , characterised in that - the control facility is designed so that it sets the output current (I) of the fuel cell on the basis of a characteristic curve (K) which is defined for the predetermined section of track and which defines the respective output current (I) of the fuel cell as a function of the respective charging state of the storage facility , wherein the characteristic curve (K) depends on a control parameter, and - the control facility is moreover designed so that after passing through the section of track it checks whether an auxiliary value (H) dependent on the average charging state of the storage facility during the journey in the section of track deviates from a predetermined target value and changes the control parameter as a function of the result of the check for the respectively next journey in the same section of track . - the control facility is designed so that it sets the output current (I) of the fuel cell on the basis of a characteristic curve (K) which is defined for the predetermined section of track and which defines the respective output current (I) of the fuel cell as a function of the respective charging state of the storage facility , wherein the characteristic curve (K) depends on a control parameter, and - the control facility is moreover designed so that after passing through the section of track it checks whether an auxiliary value (H) dependent on the average charging state of the storage facility during the journey in the section of track deviates from a predetermined target value and changes the control parameter as a function of the result of the check for the respectively next journey in the same section of track .
A method for producing an oxide catalyst comprising Mo, V, Sb, and Nb, the method comprising: a raw material preparation step comprising a sub-step (I) of preparing an aqueous mixed liquid (A) comprising Mo, V, and Sb, a sub-step (II) of adding hydrogen peroxide to the aqueous mixed liquid (A), thereby facilitating oxidation of the aqueous mixed liquid (A) and obtaining an aqueous mixed liquid (A'), and a sub-step (III) of mixing the aqueous mixed liquid (A') and a Nb raw material liquid (B), thereby obtaining an aqueous mixed liquid (C); a drying step of drying the aqueous mixed liquid (C), thereby obtaining a dried powder; a calcination step of calcining the dried powder under an inert gas atmosphere; and a removal step of removing a protrusion existing at the surface of the particle of the oxide catalyst, wherein the time elapsed from addition of the hydrogen peroxide to the aqueous mixed liquid (A) to mixing the Nb raw material liquid (B) therewith is less than 5 minutes and the aqueous mixed liquid (A') before being subjected to the sub-step (III) has an oxidation-reduction potential, determined as described in the description, of 150 to 350 mV. a raw material preparation step comprising a sub-step (I) of preparing an aqueous mixed liquid (A) comprising Mo, V, and Sb, a sub-step (II) of adding hydrogen peroxide to the aqueous mixed liquid (A), thereby facilitating oxidation of the aqueous mixed liquid (A) and obtaining an aqueous mixed liquid (A'), and a sub-step (III) of mixing the aqueous mixed liquid (A') and a Nb raw material liquid (B), thereby obtaining an aqueous mixed liquid (C); a sub-step (I) of preparing an aqueous mixed liquid (A) comprising Mo, V, and Sb, a sub-step (II) of adding hydrogen peroxide to the aqueous mixed liquid (A), thereby facilitating oxidation of the aqueous mixed liquid (A) and obtaining an aqueous mixed liquid (A'), and a sub-step (III) of mixing the aqueous mixed liquid (A') and a Nb raw material liquid (B), thereby obtaining an aqueous mixed liquid (C); a drying step of drying the aqueous mixed liquid (C), thereby obtaining a dried powder; a calcination step of calcining the dried powder under an inert gas atmosphere; and a removal step of removing a protrusion existing at the surface of the particle of the oxide catalyst, wherein the time elapsed from addition of the hydrogen peroxide to the aqueous mixed liquid (A) to mixing the Nb raw material liquid (B) therewith is less than 5 minutes and the aqueous mixed liquid (A') before being subjected to the sub-step (III) has an oxidation-reduction potential, determined as described in the description, of 150 to 350 mV.
A drying machine, comprising: a dryer comprising a casing having a front open, a grip comprising a cylindrical grip body downward extended from the casing and a lower cover covering a lower opening part of the grip body ; and a stand comprising a seating unit on which the dryer is rotatably seated, wherein the seating unit has a hollow portion and at least a part of the grip is inserted into a top opening of the hollow portion , wherein the grip comprises a first electrical terminal and a second electrical terminal , the seating unit comprises a first contact terminal positioned in the hollow portion and electrically connected to the first electrical terminal and a second contact terminal positioned in the hollow portion and electrically connected to the second electrical terminal , and the first and second contact terminals are arranged to maintain an electrical connection with the first and second electrical terminals regardless of the rotation of the dryer in the seating unit , characterized in that the first electrical terminal is positioned in the grip body , and the second electrical terminal is positioned in the lower cover . a dryer comprising a casing having a front open, a grip comprising a cylindrical grip body downward extended from the casing and a lower cover covering a lower opening part of the grip body ; and a stand comprising a seating unit on which the dryer is rotatably seated, wherein the seating unit has a hollow portion and at least a part of the grip is inserted into a top opening of the hollow portion , wherein the grip comprises a first electrical terminal and a second electrical terminal , the seating unit comprises a first contact terminal positioned in the hollow portion and electrically connected to the first electrical terminal and a second contact terminal positioned in the hollow portion and electrically connected to the second electrical terminal , and the first and second contact terminals are arranged to maintain an electrical connection with the first and second electrical terminals regardless of the rotation of the dryer in the seating unit , characterized in that the first electrical terminal is positioned in the grip body , and the second electrical terminal is positioned in the lower cover .
An integrated printed circuit board assembly system of a power distribution unit , the integrated printed circuit board assembly system comprising: a plurality of current transformer boards , each current transformer board being configured to connect to a respective circuit protection device ; a plurality of measurement boards , including at least a first measurement board and a second measurement board , wherein each of the plurality of measurement boards is configured to measure at least one of a voltage and a current; and a signal board connected to each of the plurality of current transformer boards and connected to each of the plurality of measurement boards , wherein the signal board is configured to collect voltage and/or current signals from each of the plurality of current transformer boards and distributes the voltage and/or current signals to the plurality of measurement boards . a plurality of current transformer boards , each current transformer board being configured to connect to a respective circuit protection device ; a plurality of measurement boards , including at least a first measurement board and a second measurement board , wherein each of the plurality of measurement boards is configured to measure at least one of a voltage and a current; and a signal board connected to each of the plurality of current transformer boards and connected to each of the plurality of measurement boards , wherein the signal board is configured to collect voltage and/or current signals from each of the plurality of current transformer boards and distributes the voltage and/or current signals to the plurality of measurement boards .
A wing leading-edge device , comprising a slat body having a front side with a forward skin and a back side with a rearward skin ; and and at least a drive arrangement having at least one lug and a slat track ; wherein the back side extends between an upper spanwise edge of the forward skin and a lower spanwise edge of the forward skin ; wherein the back side is defined by a continuously curved profile contour for receiving a fixed leading edge of a wing ; wherein the at least one lug is at least partially arranged between the back side and the front side ; wherein the slat track is coupled with the at least one lug ; wherein the at least one lug comprises a first lug and a second lug ; wherein the at least one drive arrangement comprises the first lug , the second lug and a support link ; wherein the slat track comprises a curved track section and a forward leg ; wherein the forward leg is fixedly arranged at an angle (α) to a tangential line of the curved track section on a connection point between the curved track section and the forward leg ; wherein the support link is swivelably coupled with the second lug and a connecting joint ; wherein the connecting joint is arranged on the forward leg of the slat track ; and wherein the second lug is arranged on the slat body . and at least a drive arrangement having at least one lug and a slat track ; wherein the back side extends between an upper spanwise edge of the forward skin and a lower spanwise edge of the forward skin ; wherein the back side is defined by a continuously curved profile contour for receiving a fixed leading edge of a wing ; wherein the at least one lug is at least partially arranged between the back side and the front side ; wherein the slat track is coupled with the at least one lug ; wherein the at least one lug comprises a first lug and a second lug ; wherein the at least one drive arrangement comprises the first lug , the second lug and a support link ; wherein the slat track comprises a curved track section and a forward leg ; wherein the forward leg is fixedly arranged at an angle (α) to a tangential line of the curved track section on a connection point between the curved track section and the forward leg ; wherein the support link is swivelably coupled with the second lug and a connecting joint ; wherein the connecting joint is arranged on the forward leg of the slat track ; and wherein the second lug is arranged on the slat body .
A convertible vest and jacket system comprising: a torso portion having a front aspect and a back aspect , the torso portion defining a neck opening , a waist opening , a first sleeve opening , and a second sleeve opening , each of the first sleeve opening and the second sleeve opening comprising an anterior edge and a posterior edge , each of the first sleeve opening and the second sleeve opening comprising a releasable fastener located adjacent to the anterior edge of the each of the first sleeve opening and the second sleeve opening ; a pocket located on an inner-facing surface of the back aspect of the torso portion ; a first sleeve having a proximal end and a distal end , a posterior portion of the proximal end of the first sleeve permanently affixed to the torso portion adjacent to the posterior edge of the first sleeve opening , an anterior portion of the proximal end of the first sleeve comprising a releasable fastener complementary to the releasable fastener located adjacent the anterior edge of the first sleeve opening ; and a second sleeve having a proximal end and a distal end , a posterior portion of the proximal end of the second sleeve permanently affixed to the torso portion adjacent to the posterior edge of the second sleeve opening , an anterior portion of the proximal end of the second sleeve comprising a releasable fastener complementary to the releasable fastener located adjacent the anterior edge of the second sleeve opening .; characterized in that the pocket comprises a first pocket opening located at a first lateral side of the pocket , and wherein the pocket comprises a second pocket opening located at a second lateral side of the pocket
An air-conditioning apparatus comprising a heat source unit , a casing (2a to 2d, 70) and a refrigerant circuit connecting, by a refrigerant pipe, a compressor , a first heat exchanger , a first expansion device (16a to 16d, 16), and a second heat exchanger (17a to 17d, 71), the refrigerant circuit circulating refrigerant therein, the compressor and the first heat exchanger being housed in the heat source unit , the refrigerant circuit configured to enable cooling operation in which the first heat exchanger is configured to operate as a condenser and said second heat exchanger (17a to 17d, 71) is configured to in a non-stopped state operate as an evaporator, the heat source unit housing a second expansion device provided at a location on a downstream side with respect to the first heat exchanger and on an upstream side with respect to said first expansion device (16a to 16d, 16) in a refrigerant flow direction in the cooling operation, the second expansion device and said first expansion device (16a to 16d, 16) being connected via a first extension pipe , the second expansion device configured to reduce a pressure of refrigerant flowing into the first extension pipe in the cooling operation to cause the refrigerant to turn into refrigerant having a medium pressure and in a two-phase state, the medium pressure being lower than a refrigerant pressure in the condenser and higher than a refrigerant pressure in the evaporator, in the cooling operation, the refrigerant having the medium pressure and in the two-phase state being caused to flow through the first extension pipe , a refrigerant mixture of R32 and tetrafluoropropene-based refrigerant being used as the refrigerant, characterized in that the casing (2a to 2d, 70) houses the first expansion device (16a to 16d, 16) and the second heat exchanger (17a to 17d, 71) and is installed at a location away from the heat source unit , wherein the casing (2a to 2d, 70) is connected to the heat source unit via a plurality of extension pipes constituting a part of the refrigerant pipe, the first extension pipe being one of the plurality of extension pipes , wherein the air-conditioning apparatus further comprises a medium pressure detection device provided on a downstream side of the second expansion device in the refrigerant flow direction in the cooling operation, and detecting a pressure or a saturation temperature of refrigerant; and a controller configured to control an opening degree of the second expansion device based on a detected pressure or a detected temperature of the medium pressure detection device , wherein, in the cooling operation, when the mixture ratio of R32 in the refrigerant mixture is R (1/100 wt%), a quality of refrigerant to be caused to flow through the first extension pipe being a value within a quality range from (-0.0782 × R + 0.1399) to (-0.0933 × R + 0.3999).
A drive system for a hybrid vehicle, comprising an internal combustion engine which has and can drive an internal combustion engine shaft , an automatic transmission which has a transmission input shaft arranged coaxially to the internal combustion engine shaft on the drive side, and a transmission output shaft arranged coaxially to the internal combustion engine shaft on the output side, a transmission clutch for coupling or decoupling the transmission input shaft and the transmission output shaft , a gyrating mass drive unit which is arranged axially between the internal combustion engine and the automatic transmission and has an intermediate shaft arranged coaxially to the internal combustion engine shaft , a first clutch for coupling or decoupling the internal combustion engine shaft and the intermediate shaft , a second clutch for coupling or decoupling the intermediate shaft and the transmission input shaft , and an electric machine which sits on the transmission input shaft and can drive the latter in a motor mode, characterized in that the gyrating mass drive unit is configured as a dual-mass flywheel, and the electric machine is a low-voltage electric machine having an operating voltage of less than 60 V.
High-pressure cylinder having an internal core or liner in plastic material and a surface covering consisting of one or more layers of composite material, partially incorporating a nozzle applied to the upper end portion of the neck of core shaped to receive at least one accessory, such as a tap, a valve, or other, said nozzle comprising an internal metal element and an external metal element which can be screwed one to the other to tighten on said neck of the core , characterised in that said neck of the core has a slight narrowing of diameter starting from its mouth, such as to determine an internal conical surface suitable for coupling with a corresponding external conical surface of the internal element of the nozzle , and an external conical surface , having the same conicity of said internal conical surface , suitable for coupling with a corresponding internal conical surface of the external element of the nozzle, and in that said nozzle also comprises an annular protective element in plastic or elastomeric material , acting as a bearing, which is interposed between a widened base of the external element of the nozzle and the upper part of the core of the cylinder . characterised in that said neck of the core has a slight narrowing of diameter starting from its mouth, such as to determine an internal conical surface suitable for coupling with a corresponding external conical surface of the internal element of the nozzle , and an external conical surface , having the same conicity of said internal conical surface , suitable for coupling with a corresponding internal conical surface of the external element of the nozzle, and in that said nozzle also comprises an annular protective element in plastic or elastomeric material , acting as a bearing, which is interposed between a widened base of the external element of the nozzle and the upper part of the core of the cylinder .
A system for protecting an integrated circuit (IC) device from attacks, the IC device comprising a substrate having a front surface and a back surface , the IC device further comprising a front side part arranged above the front surface of the substrate and comprising stacked layers, at least one of said layers comprising a data layer comprising wire carrying data, the front side part having a front surface , whereir the system comprises an internal shield arranged in the IC device in the vicinity of the front surface of the substrate, in one or more lower layers of the front side part, below said data layer, said lower layers including conductive layers, said internal shield comprising a mesh of lines arranged in empty areas of the one or more layers in which the internal shield is arranged, said lower layers including polysilicon layers, and/or metal layers, the internal shield forming a structure that has a repeated routing pattern comprising rectilinear lines, the routing of the internal shield being configured to fit said empty areas while bypassing the components arranged in said one or more layers, the system further comprising a verification circuit configured to check integrity of a routing portion of the internal shield, said verification circuit being arranged in the vicinity of sensitive components of the device or interleaved with sensitive components of the IC device, said verification circuit being configured to propagate input data inside said routing portion of internal shield and check the integrity of said input data at the output of said routing portion of the internal shield, wherein the verification unit comprises a computation unit for computing said input data to be sent through said routing portion of the internal shield and a comparison unit to check if a condition is satisfied between an output value received at the output of said routing portion and said input data, said verification circuit being implemented in the form of a dummy computation circuitry, by filling the low-density placement areas of the front-side part with said dummy computation circuitry the frequency of the verification circuit depending on a system clock, the input data being generated by a random number generator or being derived from a random seed, and wherein said computation unit is configured to implement an operation to compute said target value, said operation being selected in the group consisting of an arithmetic operation, a ciphering operation, or a Cyclic Redundancy Check (CRC) computations.
Method for steering the growth of magnetic nanostructures, wherein a method for sensing the growth of magnetic nanostructures is executed, in which a method for sensing magnetic nanostructures with the steps of: - providing magnetic nanostructures in a measurement chamber ; - exciting the magnetic nanostructures in the measurement chamber by a magnetic field generated by a coil arrangement ; - sensing the magnetic field in the measurement chamber by the coil arrangement ; - evaluating the magnetic nanostructures by using the sensed magnetic field; is carried out at least at two different points of time at different stages during a growth process of the magnetic nanostructures, and wherein additionally, depending on the evaluation of the magnetic nanostructures at a certain point of time, the growth of the magnetic nanostructures is influenced, thus providing a feedback loop for steering the nucleation and growth process of the magnetic nanostructures, characterized in that the magnetic nanostructures reside in the measurement chamber throughout the execution of the method for steering the growth of magnetic nanostructures or wherein at least a part of the magnetic nanostructures reside in the measurement chamber during execution of the steps of the method for sensing the growth of magnetic nanostructures, and the growth of the magnetic nanostructures is influenced outside the measurement chamber . wherein a method for sensing the growth of magnetic nanostructures is executed, in which a method for sensing magnetic nanostructures with the steps of: - providing magnetic nanostructures in a measurement chamber ; - exciting the magnetic nanostructures in the measurement chamber by a magnetic field generated by a coil arrangement ; - sensing the magnetic field in the measurement chamber by the coil arrangement ; - evaluating the magnetic nanostructures by using the sensed magnetic field; - providing magnetic nanostructures in a measurement chamber ; - exciting the magnetic nanostructures in the measurement chamber by a magnetic field generated by a coil arrangement ; - sensing the magnetic field in the measurement chamber by the coil arrangement ; - evaluating the magnetic nanostructures by using the sensed magnetic field; is carried out at least at two different points of time at different stages during a growth process of the magnetic nanostructures, and wherein additionally, depending on the evaluation of the magnetic nanostructures at a certain point of time, the growth of the magnetic nanostructures is influenced, thus providing a feedback loop for steering the nucleation and growth process of the magnetic nanostructures, characterized in that the magnetic nanostructures reside in the measurement chamber throughout the execution of the method for steering the growth of magnetic nanostructures or wherein at least a part of the magnetic nanostructures reside in the measurement chamber during execution of the steps of the method for sensing the growth of magnetic nanostructures, and the growth of the magnetic nanostructures is influenced outside the measurement chamber .