mhurhangee/ep-ind-claims huggingface dataset:
A process for converting organosulfur compounds in a liquid hydrocarbon feedstock to oxidation products sulfoxides and/or sulfones of the organosulfur compounds, including in-situ production of oxidant, the process comprising: a. providing an electrochemical reactor in which both in-situ production of oxidant and oxidative conversion of organosulfur compounds occur, the reactor including a gas-permeable and liquid-impermeable cathode, and an anode within an electrolyte compartment, the cathode and the anode electrically coupled to an electrical power source and spaced apart from one another; b. conveying a gaseous source of oxygen to an outer surface of the gas-permeable and liquid-impermeable cathode to form oxygen ions; c. conveying acidic electrolyte and the liquid hydrocarbon feedstock into the electrolyte compartment, wherein hydrogen peroxide and hydrogen peroxide ions are electrosynthesized by reaction of oxygen ions generated at the cathode and hydrogen cations from the acidic electrolyte; d. oxidizing organosulfur compounds in the hydrocarbon feedstock with hydrogen peroxide formed in step (c) to produce oxidation products sulfoxides and/or sulfones of the organosulfur compounds; and e. removing a mixture of electrolyte and hydrocarbons including oxidation products from the electrolyte compartment. a. providing an electrochemical reactor in which both in-situ production of oxidant and oxidative conversion of organosulfur compounds occur, the reactor including a gas-permeable and liquid-impermeable cathode, and an anode within an electrolyte compartment, the cathode and the anode electrically coupled to an electrical power source and spaced apart from one another; b. conveying a gaseous source of oxygen to an outer surface of the gas-permeable and liquid-impermeable cathode to form oxygen ions; c. conveying acidic electrolyte and the liquid hydrocarbon feedstock into the electrolyte compartment, wherein hydrogen peroxide and hydrogen peroxide ions are electrosynthesized by reaction of oxygen ions generated at the cathode and hydrogen cations from the acidic electrolyte; d. oxidizing organosulfur compounds in the hydrocarbon feedstock with hydrogen peroxide formed in step (c) to produce oxidation products sulfoxides and/or sulfones of the organosulfur compounds; and e. removing a mixture of electrolyte and hydrocarbons including oxidation products from the electrolyte compartment.
A process for producing a calcium phosphate composition powder comprising calcium phosphate particles and a polysulfonic acid salt, wherein the calcium phosphate composition powder contains 0.5 to 20 parts by weight of the polysulfonic acid salt based on 100 parts by weight of the calcium phosphate particles, wherein the calcium phosphate particles consist of tetracalcium phosphate particles and acidic calcium phosphate particles, and the tetracalcium phosphate particles, the acidic calcium phosphate particles and the polysulfonic acid salt are mixed in a state of a powder.
A straddled vehicle comprising: a body; and a cord-like member installed on an outside and/or an inside of the body, wherein, the straddled vehicle further comprising a guide member disposed so as to guide the cord-like member, the guide member restraining the cord-like member from moving in a first direction which is substantially orthogonal to a longitudinal direction of the cord-like member; the guide member includes a support shaft which is substantially orthogonal to the first direction and which extends so as to intersect the longitudinal direction of the cord-like member, and includes a roller rotatably supported by the support shaft; and the guide member does not restrain the cord-like member from moving in a second direction which is an opposite direction to the first direction characterized in that the roller has a cylindrical shape with a constant outer diameter from one end to the other end of the roller. a body; and a cord-like member installed on an outside and/or an inside of the body, wherein, the straddled vehicle further comprising a guide member disposed so as to guide the cord-like member, the guide member restraining the cord-like member from moving in a first direction which is substantially orthogonal to a longitudinal direction of the cord-like member; the guide member includes a support shaft which is substantially orthogonal to the first direction and which extends so as to intersect the longitudinal direction of the cord-like member, and includes a roller rotatably supported by the support shaft; and the guide member does not restrain the cord-like member from moving in a second direction which is an opposite direction to the first direction characterized in that the roller has a cylindrical shape with a constant outer diameter from one end to the other end of the roller.
An inhaler comprising an upper housing and an electronic module, the electronic module comprising: a cap that is configured to be attached to the upper housing of the inhaler, a printed circuit board attached to the cap by one or more heat stakes (212, 214) that extend from a top, inner surface of the cap, a battery connected to the printed circuit board, and a damper configured to dampen energy transfer to and/or from the battery when the electronic module is exposed to mechanical shock to reduce energy transfer to the heat stakes (212, 214) and the printed circuit board, wherein the damper comprises a substrate which is positioned at a surface of said upper housing of the inhaler thereby enabling the substrate to provide compressive damping against said surface. a cap that is configured to be attached to the upper housing of the inhaler, a printed circuit board attached to the cap by one or more heat stakes (212, 214) that extend from a top, inner surface of the cap, a battery connected to the printed circuit board, and a damper configured to dampen energy transfer to and/or from the battery when the electronic module is exposed to mechanical shock to reduce energy transfer to the heat stakes (212, 214) and the printed circuit board, wherein the damper comprises a substrate which is positioned at a surface of said upper housing of the inhaler thereby enabling the substrate to provide compressive damping against said surface.
A sound signal decoding method for decoding an inputted code for each frame to obtain a decoded sound signal having C channels, C being an integer of 2 or larger, the sound signal decoding method comprising: as processing for a current frame, a monaural decoding step of decoding a monaural code included in the inputted code by a decoding scheme that includes processing of applying a window having overlap between frames to obtain a monaural decoded sound signal; an additional decoding step of decoding an additional code included in the inputted code to obtain an additional decoded signal, which is a monaural decoded signal for a section X which is a section corresponding to the overlap between the current frame and an immediately following frame; and a stereo decoding step of obtaining a decoded downmix signal, which is a concatenation of a part of the monaural decoded sound signal for a section Y which is a section except the section X and the additional decoded signal for the section X, and obtaining and outputting the decoded sound signal having the C channels from the decoded downmix signal by upmix processing using a characteristic parameter obtained from a stereo code included in the inputted code. as processing for a current frame, a monaural decoding step of decoding a monaural code included in the inputted code by a decoding scheme that includes processing of applying a window having overlap between frames to obtain a monaural decoded sound signal; an additional decoding step of decoding an additional code included in the inputted code to obtain an additional decoded signal, which is a monaural decoded signal for a section X which is a section corresponding to the overlap between the current frame and an immediately following frame; and a stereo decoding step of obtaining a decoded downmix signal, which is a concatenation of a part of the monaural decoded sound signal for a section Y which is a section except the section X and the additional decoded signal for the section X, and obtaining and outputting the decoded sound signal having the C channels from the decoded downmix signal by upmix processing using a characteristic parameter obtained from a stereo code included in the inputted code.
An apparatus for generating a stereo output signal having a first output channel and a second output channel from a stereo input signal having a first input channel and a second input channel comprising: a manipulation information generator (110; 210; 340; 440; 640) being adapted to generate manipulation information depending on a first signal indication value of the first input channel and on a second signal indication value of the second input channel; and a manipulator (120; 220; 360, 370; 460, 470; 660, 670) for manipulating a combination signal based on the manipulation information to obtain a first manipulated signal as the first output channel and a second manipulated signal as the second output channel; wherein the combination signal is a signal derived by combining the first input channel and the second input channel; and wherein the manipulator (120; 220; 360, 370; 460, 470; 660, 670) is configured for manipulating the combination signal in a first manner, when the first signal indication value is in a first relation to the second signal indication value, or in a different second manner, when the first signal indication value is in a different second relation to the second signal indication value. a manipulation information generator (110; 210; 340; 440; 640) being adapted to generate manipulation information depending on a first signal indication value of the first input channel and on a second signal indication value of the second input channel; and a manipulator (120; 220; 360, 370; 460, 470; 660, 670) for manipulating a combination signal based on the manipulation information to obtain a first manipulated signal as the first output channel and a second manipulated signal as the second output channel; wherein the combination signal is a signal derived by combining the first input channel and the second input channel; and wherein the manipulator (120; 220; 360, 370; 460, 470; 660, 670) is configured for manipulating the combination signal in a first manner, when the first signal indication value is in a first relation to the second signal indication value, or in a different second manner, when the first signal indication value is in a different second relation to the second signal indication value.
A method for parking a truck accurately in a shore crane area, comprising: receiving (S200, A100), by a main controller, a parking request for a truck to be parked as transmitted by a vehicle controller; acquiring (S200, A200) real-time point cloud data obtained by scanning one or more lanes crossed by a shore crane using one or more LiDARs connected to the main controller; clustering (S300, A300) the real-time point cloud data to obtain a set of point clouds for the truck to be parked; and applying (S400, A400) an Iterative Closest Point algorithm to the set of point clouds for the truck to be parked and a vehicle point cloud model to obtain a real-time distance from the truck to be parked to a target parking space and to transmit the real-time distance to the vehicle controller, such that the vehicle controller controls the truck to be parked to stop at the target parking space based on the real-time distance, wherein the vehicle point cloud model is a set of point clouds obtained by scanning a truck parked at the target parking space using a LiDAR in advance. receiving (S200, A100), by a main controller, a parking request for a truck to be parked as transmitted by a vehicle controller; acquiring (S200, A200) real-time point cloud data obtained by scanning one or more lanes crossed by a shore crane using one or more LiDARs connected to the main controller; clustering (S300, A300) the real-time point cloud data to obtain a set of point clouds for the truck to be parked; and applying (S400, A400) an Iterative Closest Point algorithm to the set of point clouds for the truck to be parked and a vehicle point cloud model to obtain a real-time distance from the truck to be parked to a target parking space and to transmit the real-time distance to the vehicle controller, such that the vehicle controller controls the truck to be parked to stop at the target parking space based on the real-time distance, wherein the vehicle point cloud model is a set of point clouds obtained by scanning a truck parked at the target parking space using a LiDAR in advance.
Pocket spring core, having a plurality of springs (4, 5), of which a plurality thereof arranged one behind the other in a row and each lying in a flexible pocket formed preferably of textile material form a bank of springs and a plurality of adjoining banks of springs which jointly form a lying surface are connected to one another, wherein the springs (4, 5) of at least one region of the lying surface are different in their spring behavior with respect to the springs (4, 5) of the adjacent regions, wherein: - at least a part of the individual banks of springs consists of partial banks of springs (2, 3) with different spring behavior, - the pocketed springs (4, 5) of the respective partial banks of springs (2, 3) are the same, - at least some of the adjacent partial banks of springs (2, 3) of adjoining banks of springs are of different lengths, - the adjacent partial banks of springs (2, 3) of adjoining banks of springs are connected to one another by gluing or welding, - the adjacent banks of springs are connected to one another by gluing or welding, - a partial bank of springs (2, 3) of a further bank of springs is arranged between two partial banks of springs (2, 3) of two banks of springs 1, which in its length is different from the partial banks of springs (2, 3) adjacent on both sides, - and the partial banks of springs (2, 3) of adjacent banks of springs overlap in the region of at least one pocketed spring (4, 5), wherein the production of the pocket spring core takes place fully automatically, characterized in that the partial banks of springs (2, 3) with different spring behavior of an individual bank of springs are not connected to each other - at least a part of the individual banks of springs consists of partial banks of springs (2, 3) with different spring behavior, - the pocketed springs (4, 5) of the respective partial banks of springs (2, 3) are the same, - at least some of the adjacent partial banks of springs (2, 3) of adjoining banks of springs are of different lengths, - the adjacent partial banks of springs (2, 3) of adjoining banks of springs are connected to one another by gluing or welding, - the adjacent banks of springs are connected to one another by gluing or welding, - a partial bank of springs (2, 3) of a further bank of springs is arranged between two partial banks of springs (2, 3) of two banks of springs 1, which in its length is different from the partial banks of springs (2, 3) adjacent on both sides, - and the partial banks of springs (2, 3) of adjacent banks of springs overlap in the region of at least one pocketed spring (4, 5), wherein the production of the pocket spring core takes place fully automatically,
System, comprising: a security certificate manager; and at least one security-critical functional chain, which comprises a plurality of components, which are chained together via communications connections, KVB, and which each have an associated component security certificate, KSZ, which is stored in an associated manipulation-proof memory area of a data memory and is verifiable by the security certificate manager for clearance of the components within the security-critical functional chain, wherein the KSZ has interface security certificates, SSZ, for output component interfaces of the component, having an interface security level, SSL, of the associated output component interface respectively specified therein, and SSZ for input component interfaces of the component, having an SSL of the associated input component interface respectively demanded therein, the security certificate manager is configured to check whether a component security level, KSL, specified in the KSZ of the chained components, is sufficient for a component security level, KSL, of the relevant component, which is required in accordance with predetermined security requirements, and whether SSL, respectively specified in the SSZ of input and output component interfaces, connected via a communications connection, KVB, of two components adjacent within the security-critical functional chain, are compatible with one another, and the security certificate manager is configured to clear the security-critical functional chain automatically if the check on all KSL and SSL was successful. a security certificate manager; and at least one security-critical functional chain, which comprises a plurality of components, which are chained together via communications connections, KVB, and which each have an associated component security certificate, KSZ, which is stored in an associated manipulation-proof memory area of a data memory and is verifiable by the security certificate manager for clearance of the components within the security-critical functional chain, wherein the KSZ has interface security certificates, SSZ, for output component interfaces of the component, having an interface security level, SSL, of the associated output component interface respectively specified therein, and SSZ for input component interfaces of the component, having an SSL of the associated input component interface respectively demanded therein, the security certificate manager is configured to check whether a component security level, KSL, specified in the KSZ of the chained components, is sufficient for a component security level, KSL, of the relevant component, which is required in accordance with predetermined security requirements, and whether SSL, respectively specified in the SSZ of input and output component interfaces, connected via a communications connection, KVB, of two components adjacent within the security-critical functional chain, are compatible with one another, and the security certificate manager is configured to clear the security-critical functional chain automatically if the check on all KSL and SSL was successful.
A vehicle-body structure of an electric automotive vehicle, in which a motor for vehicle driving is provided and a battery case where a battery to supply electric power to the motor for vehicle driving is stored is arranged below a floor panel, comprising: a dash panel partitioning a cabin from a front space of a vehicle body in a vehicle longitudinal direction and connected to a vehicle-front end portion of the floor panel at a lower end portion thereof; a pair of right-and-left front side frames respectively extending forward from both sides, in a vehicle width direction, of the dash panel; a pair of right-and-left side sills respectively extending in the vehicle longitudinal direction at both end portions, in the vehicle width direction, of the floor panel; a pair of right-and-left first longitudinal load-transmitting members respectively extending from respective vehicle-rear portions of the right-and-left front side frames to the right-and-left side sills along an upper face of the floor panel; and a pair of right-and-left second longitudinal load-transmitting members respectively extending from the respective vehicle-rear portions of the right-and-left front side frames toward a vehicle-front portion of the battery case along a lower face of the floor panel. a dash panel partitioning a cabin from a front space of a vehicle body in a vehicle longitudinal direction and connected to a vehicle-front end portion of the floor panel at a lower end portion thereof; a pair of right-and-left front side frames respectively extending forward from both sides, in a vehicle width direction, of the dash panel; a pair of right-and-left side sills respectively extending in the vehicle longitudinal direction at both end portions, in the vehicle width direction, of the floor panel; a pair of right-and-left first longitudinal load-transmitting members respectively extending from respective vehicle-rear portions of the right-and-left front side frames to the right-and-left side sills along an upper face of the floor panel; and a pair of right-and-left second longitudinal load-transmitting members respectively extending from the respective vehicle-rear portions of the right-and-left front side frames toward a vehicle-front portion of the battery case along a lower face of the floor panel.
A manufacturing apparatus for manufacturing a fixing member usable in a fixing device mounted in an electrophotographic image forming apparatus, the fixing member having cured rubber containing a needle like filler formed on an outer surface (4a-3) of a base material, said manufacturing apparatus comprising: a metal mold capable of holding the base material of the fixing member in an inside thereof; and an injecting member for injecting a liquid rubber containing a needle like filler into said metal mold in an injection direction which is equal to an axial direction (y) of the base material so as to form the rubber containing the needle like filler on the outer surface (4a-3) of the base material, characterized in that said injecting member includes a group of openings for injecting the liquid rubber and is configured so that a ratio Sb/Sa of a total surface area Sb of the group of openings per unit length with respect to the injection direction to a sum of a surface area Sa of an inner surface of said metal mold and the outer surface (4a-3) of the base material per unit length with respect to the injection direction is 1.3 or more and 3.3 or less. a metal mold capable of holding the base material of the fixing member in an inside thereof; and an injecting member for injecting a liquid rubber containing a needle like filler into said metal mold in an injection direction which is equal to an axial direction (y) of the base material so as to form the rubber containing the needle like filler on the outer surface (4a-3) of the base material, characterized in that said injecting member includes a group of openings for injecting the liquid rubber and is configured so that a ratio Sb/Sa of a total surface area Sb of the group of openings per unit length with respect to the injection direction to a sum of a surface area Sa of an inner surface of said metal mold and the outer surface (4a-3) of the base material per unit length with respect to the injection direction is 1.3 or more and 3.3 or less.