mhurhangee/ep-ind-claims huggingface dataset:
Beverage machine device, in particular coffee machine device, with at least one beverage pump (10; 10b), preferably an oscillating armature pump, which is configured for conveying a beverage liquid (12; 12b), with at least one regulation unit (14; 14b; 14c; 14d) configured for regulating at least one flow parameter of the beverage liquid (12; 12b) at least substantially to at least one predetermined value, characterised by a control unit (18; 18b), which is configured to actuate the beverage pump (10; 10b) for a variable adjustment of a further flow parameter of the beverage liquid (12; 12b), and wherein the control unit (18; 18b) provides a phase-angle control for the actuation of the beverage pump (10; 10b), the control unit (18; 18b) using the performance-related pump characteristic of the beverage pump (10; 10b) for an actuation and adjustment of the further flow parameter, wherein the flow parameters are parameters describing a fluid-dynamic behaviour of the beverage liquid within the beverage machine device. with at least one beverage pump (10; 10b), preferably an oscillating armature pump, which is configured for conveying a beverage liquid (12; 12b), with at least one regulation unit (14; 14b; 14c; 14d) configured for regulating at least one flow parameter of the beverage liquid (12; 12b) at least substantially to at least one predetermined value, characterised by a control unit (18; 18b), which is configured to actuate the beverage pump (10; 10b) for a variable adjustment of a further flow parameter of the beverage liquid (12; 12b), and wherein the control unit (18; 18b) provides a phase-angle control for the actuation of the beverage pump (10; 10b), the control unit (18; 18b) using the performance-related pump characteristic of the beverage pump (10; 10b) for an actuation and adjustment of the further flow parameter, wherein the flow parameters are parameters describing a fluid-dynamic behaviour of the beverage liquid within the beverage machine device.
Method for controlling passenger compartment air conditioning of a hybrid vehicle, in particular a hybrid commercial vehicle, when the vehicle is switched off during resting phases, wherein an electrical battery, as the energy store, provides the energy for electrical passenger compartment air conditioning, wherein a controller of an energy management system determines the necessary requirement for electrical energy for the air conditioning during a resting phase on the basis of boundary condition data which are predefined by the vehicle and/or by a driver and influence the air conditioning, wherein the controller compares the necessary energy requirement with the current captured energy content of the battery and determines whether the current energy content of the battery available for air conditioning suffices for the predefined air conditioning desired by the driver during the resting phase, and wherein, if it is determined that the energy content of the battery suffices for the desired air conditioning for the predefined boundary condition data, the battery is accordingly discharged in a controlled manner until the end of the resting phase in order to operate the air conditioning, characterized in that, if it is determined that the energy content of the battery does not suffice for the predefined air conditioning for the predefined boundary condition data and manipulated variables which are determined therefrom and are possibly adapted, the battery is recharged (8; 12) in a controlled manner by means of a started internal combustion engine of the hybrid vehicle during the resting phase at least until the energy content of the battery increased thereby suffices to operate the predefined air conditioning until the end of the resting phase.
A production method of a retinal pigment epithelial cell comprising the following steps: a first step for culturing a pluripotent stem cell in a medium comprising an FGF receptor inhibitor and/or an MEK inhibitor for a period of not more than 30 days, wherein the medium does not contain a Nodal signal transduction pathway inhibitor and does not contain a Wnt signal transduction pathway inhibitor; and a second step for culturing the cell obtained in the first step in the presence of a Nodal signal transduction pathway inhibitor and/or a Wnt signal transduction pathway inhibitor, and in the absence of an FGF receptor inhibitor and in the absence of an MEK inhibitor, to form a retinal pigment epithelial cell; wherein the Nodal signal transduction pathway inhibitor is SB431542, and wherein the Wnt signal transduction pathway inhibitor is CKI-7, D4476, IWR-1-endo or IWP-2. a first step for culturing a pluripotent stem cell in a medium comprising an FGF receptor inhibitor and/or an MEK inhibitor for a period of not more than 30 days, wherein the medium does not contain a Nodal signal transduction pathway inhibitor and does not contain a Wnt signal transduction pathway inhibitor; and a second step for culturing the cell obtained in the first step in the presence of a Nodal signal transduction pathway inhibitor and/or a Wnt signal transduction pathway inhibitor, and in the absence of an FGF receptor inhibitor and in the absence of an MEK inhibitor, to form a retinal pigment epithelial cell; wherein the Nodal signal transduction pathway inhibitor is SB431542, and wherein the Wnt signal transduction pathway inhibitor is CKI-7, D4476, IWR-1-endo or IWP-2. wherein the Nodal signal transduction pathway inhibitor is SB431542, and wherein the Wnt signal transduction pathway inhibitor is CKI-7, D4476, IWR-1-endo or IWP-2.
A load bearing vertical duct element for constructing a building, comprising - a load bearing frame - at least one wall that can be at least partially opened in order to provide access to the inside of the element, the load bearing frame and the wall limiting a space within, - at least one duct (21, 22) placed in the space limited by the load bearing frame and the wall, and - elements for connecting the vertical duct element to at least one floor level element so that the vertical duct element carries at least a vertical load of the floor element, wherein - the sections of the wall of the vertical duct elements that can be opened, are non-load bearing structures, characterized in that - the vertical duct element has a quadrangular cross section and includes three load bearing walls comprised in the load bearing frame and one openable wall, - the vertical duct element comprises elements for forming a passage from one superposed vertical duct element to another and through a floor level, whereby said elements for forming a passage comprise a casting cassette, and - the elements for connecting the vertical duct element to at least one floor level element comprise reinforcement bars fixed with cast concrete. - a load bearing frame - at least one wall that can be at least partially opened in order to provide access to the inside of the element, the load bearing frame and the wall limiting a space within, - at least one duct (21, 22) placed in the space limited by the load bearing frame and the wall, and - elements for connecting the vertical duct element to at least one floor level element so that the vertical duct element carries at least a vertical load of the floor element, wherein - the sections of the wall of the vertical duct elements that can be opened, are non-load bearing structures, characterized in that - the vertical duct element has a quadrangular cross section and includes three load bearing walls comprised in the load bearing frame and one openable wall, - the vertical duct element comprises elements for forming a passage from one superposed vertical duct element to another and through a floor level, whereby said elements for forming a passage comprise a casting cassette, and - the elements for connecting the vertical duct element to at least one floor level element comprise reinforcement bars fixed with cast concrete.
A method for determining the amount of Anammox bacteria without heme derivatization with pyridine and oxidation of heme and subsequent comparative measuring of oxidized and reduced heme in a biochemical reactor, comprising the following steps: i) taking a sample of the biochemical reactor; ii) optionally, separating the solid components from the liquid components, upon presence of red-stained contaminations in the wave range of 500 nm to 600 nm, with the supernatant being discarded; iii) adding metal hydroxide to the sample; iv) optionally suspending the solid components in the alkaline solution; v) heating the samples up to at least 60°C; vi) separating the solid components; vii) adding a salt of the dithionic acid as a reducing agent to the liquid phase; viii) measuring the translucency of the liquid phase in a spectrophotometer at three wave lengths in the range of 500 to 600 nm, wherein the wave length measurement of the first wave length is carried out at 530 to 540 nm, preferably 535 nm, of the second wave length at 545 to 555 nm, preferably at 550 nm, and of the third wave length at 565 to 575 nm, preferably at 570 nm; ix) comparing the translucency measured with a reference spectrum of a heme protein having a heme content that is known. i) taking a sample of the biochemical reactor; ii) optionally, separating the solid components from the liquid components, upon presence of red-stained contaminations in the wave range of 500 nm to 600 nm, with the supernatant being discarded; iii) adding metal hydroxide to the sample; iv) optionally suspending the solid components in the alkaline solution; v) heating the samples up to at least 60°C; vi) separating the solid components; vii) adding a salt of the dithionic acid as a reducing agent to the liquid phase; viii) measuring the translucency of the liquid phase in a spectrophotometer at three wave lengths in the range of 500 to 600 nm, wherein the wave length measurement of the first wave length is carried out at 530 to 540 nm, preferably 535 nm, of the second wave length at 545 to 555 nm, preferably at 550 nm, and of the third wave length at 565 to 575 nm, preferably at 570 nm; ix) comparing the translucency measured with a reference spectrum of a heme protein having a heme content that is known.
A time domain position determination method, characterized in that the method is applied in a Frame Based Equipment, FBE, access mode, and comprises: obtaining, by a terminal, first indication information and second indication information, wherein the first indication information indicates a starting position of a Fixed Frame Period, FFP, and the second indication information indicates a time domain length of the FFP; determining time domain positions of the FFP based on the starting position of the FFP and the time domain length of the FFP; and performing Listen Before Talk LBT, by the terminal, on a channel based on the time domain positions of the FFP. obtaining, by a terminal, first indication information and second indication information, wherein the first indication information indicates a starting position of a Fixed Frame Period, FFP, and the second indication information indicates a time domain length of the FFP; determining time domain positions of the FFP based on the starting position of the FFP and the time domain length of the FFP; and performing Listen Before Talk LBT, by the terminal, on a channel based on the time domain positions of the FFP.
Transmission controller (10; 80; 90) for the fluidic actuation of a transmission which comprises a plurality of gears which are selected and shifted with the aid of a transmission actuator device, and for the fluidic actuation of two sub-clutches (21, 22) of a double clutch, characterized in that the transmission controller (10; 80; 90) comprises two reversing pump actuators (11, 12), to which in each case one of the sub-clutches (21, 22) and in each case one AND valve (41, 42) are assigned, and which reversing pump actuators (11, 12) have in each case two connectors, the fluidic AND valve (41, 42) being connected to the respective connectors of the associated reversing pump actuator (11, 12), which fluidic AND valve (41, 42) has a tank connector as a third connector, the transmission actuator device being connected via a fluidic OR valve to the two reversing pump actuators (11, 12).
A method for forming a composite coating on a substrate comprising: applying a first coating composition to at least a portion of a surface of the substrate; and applying a second coating composition to at least a portion of the first coating formed in step prior to substantially heating or curing the first coating, to form a secondary coating thereon and yielding a composite coating; wherein the first and/or second coating composition is a waterborne curable film-forming composition comprising an aqueous dispersion of: (a) internally crosslinked polymeric microparticles having a core-shell morphology and having reactive functional groups; and (b) a crosslinking agent having functional groups reactive with functional groups on the polymeric microparticles; wherein the core of the polymeric microparticles is prepared from a monomer mixture comprising at least 20 percent by weight of a monomer having the structure: wherein X is O; R is a linear or branched alkyl group having 1 to 18 carbon atoms; based on the total weight of monomers in the monomer mixture. applying a first coating composition to at least a portion of a surface of the substrate; and applying a second coating composition to at least a portion of the first coating formed in step prior to substantially heating or curing the first coating, to form a secondary coating thereon and yielding a composite coating; wherein the first and/or second coating composition is a waterborne curable film-forming composition comprising an aqueous dispersion of: (a) internally crosslinked polymeric microparticles having a core-shell morphology and having reactive functional groups; and (b) a crosslinking agent having functional groups reactive with functional groups on the polymeric microparticles; wherein the core of the polymeric microparticles is prepared from a monomer mixture comprising at least 20 percent by weight of a monomer having the structure: wherein X is O; R is a linear or branched alkyl group having 1 to 18 carbon atoms; based on the total weight of monomers in the monomer mixture. (a) internally crosslinked polymeric microparticles having a core-shell morphology and having reactive functional groups; and (b) a crosslinking agent having functional groups reactive with functional groups on the polymeric microparticles;
A computer-implemented simulation method comprising: accessing a netlist of a circuit; identifying an output node of a power supply module of the circuit as a power node; designating the power node an ideal power node; partitioning the circuit into blocks, wherein the power supply module is designated a fan-in block and any blocks connected to the power node are designated fan-out blocks; performing DC initialization for the circuit; and for each time step of a transient simulation: determining any inter-relationship of the fan-out blocks, the determining any inter-relationship including identifying simulation intervals for each fan-out block; calculating a sensitivity model for each fan-out block, the sensitivity model including conductance, capacitance, and current loadings; asynchronously adding results of the sensitivity model for each fan-out block to a total loadings of the power node, the total loadings including delta values calculated based on results of a previous simulation interval and added to the total loadings; loading the total loadings into a Jacobian matrix computed for the fan-in block; and outputting a simulation waveform point based on solving the Jacobian matrix. accessing a netlist of a circuit; identifying an output node of a power supply module of the circuit as a power node; designating the power node an ideal power node; partitioning the circuit into blocks, wherein the power supply module is designated a fan-in block and any blocks connected to the power node are designated fan-out blocks; performing DC initialization for the circuit; and for each time step of a transient simulation: determining any inter-relationship of the fan-out blocks, the determining any inter-relationship including identifying simulation intervals for each fan-out block; calculating a sensitivity model for each fan-out block, the sensitivity model including conductance, capacitance, and current loadings; asynchronously adding results of the sensitivity model for each fan-out block to a total loadings of the power node, the total loadings including delta values calculated based on results of a previous simulation interval and added to the total loadings; loading the total loadings into a Jacobian matrix computed for the fan-in block; and outputting a simulation waveform point based on solving the Jacobian matrix. determining any inter-relationship of the fan-out blocks, the determining any inter-relationship including identifying simulation intervals for each fan-out block; calculating a sensitivity model for each fan-out block, the sensitivity model including conductance, capacitance, and current loadings; asynchronously adding results of the sensitivity model for each fan-out block to a total loadings of the power node, the total loadings including delta values calculated based on results of a previous simulation interval and added to the total loadings; loading the total loadings into a Jacobian matrix computed for the fan-in block; and outputting a simulation waveform point based on solving the Jacobian matrix.
A system, comprising: an auxiliary computing system comprising one or more hardware computing devices executing specific computer-executable instructions and configured to at least: detect an event designated to trigger execution of a program code of a user on a virtual compute system, wherein the event is detected at a first time; in response to detection of the event, generate an event message based at least in part on programmatic event handling information related to the program code of the user accessed from an electronic data store, wherein the event message comprises at least a user account identifier and event metadata for execution of a program code on the virtual compute system, said event metadata identifying a function of the program code to execute and one or more input parameters to the function, wherein the event message is configured to cause the virtual compute system to begin executing the program code at a second time, wherein a time period determined as a difference between the first time and the second time is shorter than a predetermined duration; and provide the event message to an intermediary message queue system, wherein the intermediary message queue system is further in communication with the virtual compute system. detect an event designated to trigger execution of a program code of a user on a virtual compute system, wherein the event is detected at a first time; in response to detection of the event, generate an event message based at least in part on programmatic event handling information related to the program code of the user accessed from an electronic data store, wherein the event message comprises at least a user account identifier and event metadata for execution of a program code on the virtual compute system, said event metadata identifying a function of the program code to execute and one or more input parameters to the function, wherein the event message is configured to cause the virtual compute system to begin executing the program code at a second time, wherein a time period determined as a difference between the first time and the second time is shorter than a predetermined duration; and provide the event message to an intermediary message queue system, wherein the intermediary message queue system is further in communication with the virtual compute system.
A reconstitution device comprising: a receptacle having an opening surrounded by a neck; a cap including a first end, a second end, and an inner bore having an aperture, the first end being secured to the receptacle; a stopper located within the opening of the neck, the stopper including a portion capable of being perforated; a plunger secured to the second end of the cap, the plunger having a shaft; and an actuating mechanism located on the plunger and the cap; wherein when the actuating mechanism is activated, the plunger travels downwardly to perforate the stopper, characterized in the plunger being adapted to slide along the outer circumference of the cap and in the reconstitution device further comprising a ratcheting mechanism that prevents upward movement of the plunger after downward movement of the plunger towards the stopper has occurred, wherein the ratcheting mechanism comprises one or more series of ribs and one or more series of teeth, and wherein each series of ribs corresponds to one of the series of teeth. a receptacle having an opening surrounded by a neck; a cap including a first end, a second end, and an inner bore having an aperture, the first end being secured to the receptacle; a stopper located within the opening of the neck, the stopper including a portion capable of being perforated; a plunger secured to the second end of the cap, the plunger having a shaft; and an actuating mechanism located on the plunger and the cap; wherein when the actuating mechanism is activated, the plunger travels downwardly to perforate the stopper, the reconstitution device further comprising a ratcheting mechanism that prevents upward movement of the plunger after downward movement of the plunger towards the stopper has occurred, wherein the ratcheting mechanism comprises one or more series of ribs and one or more series of teeth, and wherein each series of ribs corresponds to one of the series of teeth.
Device of lighting and/or signal lights of accompaniment of a motor vehicle, ready to illuminate a zone extending around the vehicle, the aforementioned device comprising two first sources of white light respectively associated with at least with first (51.53) and second turnings modules of lighting and/or signal lights, ready respectively to generate beams of light following of the determined directions, characterized in that each one of the first (51.53) and second revolving modules present a first face and a second face opposed to the first: the first face comprising a reflective surface ready to direct the beam of light emitted by the first source of white light worms the aforementioned zone and the second face supporting a pattern; the aforementioned device comprising moreover a control unit, ready to command the rotation and the intensity of the first and second modules (51, 52.53) during a cycle of limited duration, the control unit being adapted to command the rotation and the luminous intensity of at least a first module (51, 53) turning during the cycle of limited duration to direct its first face worms the aforementioned zone so as to sweep at least partially the aforementioned zone by a succession of at least two successive rotations of at least 180° in a direction then in the other of the revolving module (51, 53) with a given luminous intensity of the first white source of light according to time, and directing the first and second modules (51, 52, 53) to present in a synchronous way at the end of the cycle of limited duration their second faces in a visible way of the outside of the vehicle, the control unit being coupled with a device of detection of presence ready to detect and follow displacements of occupants of the vehicle outside the vehicle, in the aforementioned zone; the aforementioned control unit directing during the cycle of limited duration the first face of at least a second turning module towards the detected occupants then followed by the device of detection of presence during their displacements in the aforementioned zone.