mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel cell power plant , comprising: a cell stack assembly including a plurality of fuel cells configured to generate electricity based on an electrochemical reaction; a capacitor ; a plurality of inverters ; and at least one controller that is configured to control the plurality of inverters in a first mode and a second mode, the first mode including the cell stack assembly associated with at least one of the inverters , the cell stack assembly and the at least one of the inverters providing real power to a load external to the fuel cell power plant , the second mode including at least a second one of the inverters associated with the capacitor , the second one of the inverters and the capacitor selectively providing reactive power to a grid external to the fuel cell power plant , wherein the reactive power of the second mode is the only power output from the fuel cell power plant in the second mode that is external to the fuel cell power plant , wherein the capacitor is the only source of the reactive power supplied by the fuel cell power plant external to the fuel cell power plant in the second mode, and wherein the controller controls at least one switch to isolate the power output from the cell stack assembly from the reactive power output in the second mode. a cell stack assembly including a plurality of fuel cells configured to generate electricity based on an electrochemical reaction; a capacitor ; a plurality of inverters ; and at least one controller that is configured to control the plurality of inverters in a first mode and a second mode, the first mode including the cell stack assembly associated with at least one of the inverters , the cell stack assembly and the at least one of the inverters providing real power to a load external to the fuel cell power plant , the second mode including at least a second one of the inverters associated with the capacitor , the second one of the inverters and the capacitor selectively providing reactive power to a grid external to the fuel cell power plant , wherein the reactive power of the second mode is the only power output from the fuel cell power plant in the second mode that is external to the fuel cell power plant , wherein the capacitor is the only source of the reactive power supplied by the fuel cell power plant external to the fuel cell power plant in the second mode, and wherein the controller controls at least one switch to isolate the power output from the cell stack assembly from the reactive power output in the second mode.
A guided structured testing kit comprising at least one of a diagnostic test strip comprising a support element , a glucose reagent provided on the support element , and a glycemic context code provided on the support element , wherein the glycemic context code indicates a glycemic context for the diagnostic test strip , wherein the glycemic context sets the condition under which the measurement is taken as pre-prandial, post-prandial, pre-event; post-event, fasting, bedtime, or combinations thereof, a test strip container , wherein the test strip container defines an internal volume to hold the at least one diagnostic test strip , a test strip meter , wherein the glycemic context code indicates a glycemic context to the test strip meter upon insertion of the diagnostic test strip and wherein the test strip meter comprises a memory system to store the signaled glycemic context of the at least one diagnostic test strip , and associate the signaled glycemic context with a blood glucose test result provided by the at least one diagnostic test strip , and a testing protocol advisor, wherein the testing protocol advisor notifies a user of an at least one glycemic testing protocol, and wherein the testing protocol advisor running on the test strip meter can query the user if the blood glucose measure value is not plausible for the glycemic context code of the used diagnostic test strip wherein the plausibility check is based on time, the current measured blood glucose value, historical data or combinations thereof.
Taffeta needle of a taffeta machine, the taffeta machine being intended for inserting cut pieces of thread into a substrate, and the taffeta needle having a needle carrier and a needle point , characterized in that the needle point can be placed on the needle carrier and is connected to the latter in a fixed, in particular twist-proof and pull-off-proof, detachable manner, and an alignment element is provided on the needle point and is connected to an alignment counter-element of the needle carrier , in particular in such a way that it cannot be twisted or pulled off, and an alignment element is provided on the needle point which interacts with an alignment counter-element of the needle carrier to align the needle point on the needle carrier .
An optical device for the processing of input light (IL) that is associated to a characteristic wavelength (λ), comprising: - a waveguiding substrate with a first surface and a second surface ; - a reflective structure that is disposed on the first surface of the substrate ; - a perforated structure that is disposed on the second surface of said substrate and that comprises apertures having in at least one direction a diameter (Δ) that is smaller than the characteristic wavelength (λ); wherein at least one of the apertures of the perforated structure is a zero-mode waveguide; characterised in that : the reflective structure comprises a diffractive structure, within one and the same combined structure, that allows diffracting into the substrate light entering the substrate from outside and reflecting light propagating in the substrate , providing multiple reflections between the perforated structure and the diffractive structure. - a waveguiding substrate with a first surface and a second surface ; - a reflective structure that is disposed on the first surface of the substrate ; - a perforated structure that is disposed on the second surface of said substrate and that comprises apertures having in at least one direction a diameter (Δ) that is smaller than the characteristic wavelength (λ); wherein at least one of the apertures of the perforated structure is a zero-mode waveguide; characterised in that : the reflective structure comprises a diffractive structure, within one and the same combined structure, that allows diffracting into the substrate light entering the substrate from outside and reflecting light propagating in the substrate , providing multiple reflections between the perforated structure and the diffractive structure.
A pharmaceutical composition the composition comprising the following therapeutic agents: i) alvocidib, or a pharmaceutically acceptable salt thereof; and ii) a bromodomain (BRD) inhibitor, or a pharmaceutically acceptable salt thereof; for use in a method for treatment of cancer in a mammal in need thereof, wherein the therapeutic agents are co-administered, or administered sequentially. i) alvocidib, or a pharmaceutically acceptable salt thereof; and ii) a bromodomain (BRD) inhibitor, or a pharmaceutically acceptable salt thereof; for use in a method for treatment of cancer in a mammal in need thereof, wherein the therapeutic agents are co-administered, or administered sequentially.
A fan drive gear system comprising; a geared architecture including gears supported by bearing structures for providing a speed change between an input and output; a lubricant manifold defining a first lubricant passage and a second lubricant passage ; a first filter element for filtering lubricant flow to the first lubricant passage ; and a second filter element for filtering lubricant flow to the second lubricant passage ; characterised in that : the first filter element provides a first resistance to lubricant flow and the second filter element provides a second resistance to lubricant flow that is less than the first resistance.
Door for a garage, hall and the like with a closure system for opening and closing the door opening by means of slats which can be raised by at least one drive train in the opening and which close the opening when arranged one above the other, wherein during the lowering process for opening the door the slats can be moved in their respective lowest position in the floor area transversely, in particular perpendicular to the lowering direction, into a floor storage unit which is preferably arranged below the floor, wherein the slats each have slat segments at their two lower ends, characterised in that the successively arranged slats are each coupled to one another by means of at least one drag bracket in such a manner that during raising of the slats the respectively front slat entrains the respectively rear slat and the drag brackets are arranged on the slat segments for the purpose of coupling adjacent slat segments and the drag brackets are each mounted in an articulated manner on the front and rear slat segment .
An assembly comprising a clip for grounding, a grounding processing object , a nonconductive attachment object and a reference potential member , wherein the clip for grounding comprises: a grommet member made of a conductive resin, electrically connected to the grounding processing object , and fitted into an attachment hole formed in the nonconductive attachment object so as to link the grounding processing object to the attachment object ; and a contact member made of metal, assembled with the grommet member , and including an elastic contact portion relative to the reference potential member positioned on a fitting tip side (Fw) of the grommet member , characterized in that the grounding processing object is a cap of a fuel filling aperture of an automobile and a conductive tether connected to the cap, the attachment object is a fuel-filling-aperture forming member wherein an inside thereof is an insertion space for a fueling gun, and the reference potential member is a body panel of the automobile. a grommet member made of a conductive resin, electrically connected to the grounding processing object , and fitted into an attachment hole formed in the nonconductive attachment object so as to link the grounding processing object to the attachment object ; and a contact member made of metal, assembled with the grommet member , and including an elastic contact portion relative to the reference potential member positioned on a fitting tip side (Fw) of the grommet member , characterized in that the grounding processing object is a cap of a fuel filling aperture of an automobile and a conductive tether connected to the cap, the attachment object is a fuel-filling-aperture forming member wherein an inside thereof is an insertion space for a fueling gun, and the reference potential member is a body panel of the automobile.
A device for delivering fluid to or removing fluid from a cerebrospinal fluid (CSF)-containing space of a brain and for recording electrical activity from white or grey matter in the brain, the device comprising: a CSF catheter comprising a proximal end , a distal end portion , and a first lumen extending from the proximal end to the distal end portion; an electrode positioned a distance from a distal end of the CSF catheter such that the electrode would be placed in contact with white or grey matter of the brain if the distal end of the CSF catheter were positioned in the CSF-containing space; and characterized by an access port having a first fluid flow path in communication with the first lumen of the CSF catheter or having a connector configured to secure the CSF catheter such that the first lumen is in communication with the first fluid flow path wherein the access port is configured to be implanted below a scalp, the access port having a lower portion and an upper flange portion , the upper flange portion being wider than the lower portion such that the upper flange portion resides above a skull when the lower portion is implanted in a burr hole in the skull. a CSF catheter comprising a proximal end , a distal end portion , and a first lumen extending from the proximal end to the distal end portion; an electrode positioned a distance from a distal end of the CSF catheter such that the electrode would be placed in contact with white or grey matter of the brain if the distal end of the CSF catheter were positioned in the CSF-containing space; and characterized by an access port having a first fluid flow path in communication with the first lumen of the CSF catheter or having a connector configured to secure the CSF catheter such that the first lumen is in communication with the first fluid flow path wherein the access port is configured to be implanted below a scalp, the access port having a lower portion and an upper flange portion , the upper flange portion being wider than the lower portion such that the upper flange portion resides above a skull when the lower portion is implanted in a burr hole in the skull.
An aqueous green concentrated reagent composition for use as a body fluid sample diluent for use in a hematology analyzer or cellular analyzer, the aqueous green concentrated reagent composition comprising: a chelating agent, a hemoglobin ligand, a stabilizing agent, a buffer, and an antimicrobial agent, wherein the aqueous green concentrated reagent composition has a concentration which is at least 10-fold to 20-fold greater than its working concentration, and wherein: A) the chelating agent comprises 10 to 100 g/L tetrasodium EDTA; the hemoglobin ligand comprises 10 to 50 g/L imidazole; the stabilizing agent comprises 20 to 100 g/L sodium sulfate and 15 to 60 g/L potassium sulfate; the buffer comprises 60 to 300 g/L sodium potassium tartrate; and the antimicrobial agent is selected from the group consisting of 5-chloro-2-methyl-4-isothiazolin-3-one (CMIT), 2-methyl-4-isothiazolin-3-one (MIT), 5-bromo-5-nitro-1,3-dioxane (Bronidox L), and 5-fluorouracil; or B) the chelating agent comprises 10 to 65 g/L tetrasodium EDTA; the hemoglobin ligand comprises 15 to 50 g/L imidazole; the stabilizing agent comprises 40 to 100 g/L sodium sulfate and 15 to 50 g/L potassium sulfate; and the buffer comprises 80 to 180 g/L sodium potassium tartrate. a chelating agent, a hemoglobin ligand, a stabilizing agent, a buffer, and an antimicrobial agent, A) the chelating agent comprises 10 to 100 g/L tetrasodium EDTA; the hemoglobin ligand comprises 10 to 50 g/L imidazole; the stabilizing agent comprises 20 to 100 g/L sodium sulfate and 15 to 60 g/L potassium sulfate; the buffer comprises 60 to 300 g/L sodium potassium tartrate; and the antimicrobial agent is selected from the group consisting of 5-chloro-2-methyl-4-isothiazolin-3-one (CMIT), 2-methyl-4-isothiazolin-3-one (MIT), 5-bromo-5-nitro-1,3-dioxane (Bronidox L), and 5-fluorouracil; or the hemoglobin ligand comprises 10 to 50 g/L imidazole; the stabilizing agent comprises 20 to 100 g/L sodium sulfate and 15 to 60 g/L potassium sulfate; the buffer comprises 60 to 300 g/L sodium potassium tartrate; and the antimicrobial agent is selected from the group consisting of 5-chloro-2-methyl-4-isothiazolin-3-one (CMIT), 2-methyl-4-isothiazolin-3-one (MIT), 5-bromo-5-nitro-1,3-dioxane (Bronidox L), and 5-fluorouracil; or B) the chelating agent comprises 10 to 65 g/L tetrasodium EDTA; the hemoglobin ligand comprises 15 to 50 g/L imidazole; the stabilizing agent comprises 40 to 100 g/L sodium sulfate and 15 to 50 g/L potassium sulfate; and the buffer comprises 80 to 180 g/L sodium potassium tartrate. the hemoglobin ligand comprises 15 to 50 g/L imidazole; the stabilizing agent comprises 40 to 100 g/L sodium sulfate and 15 to 50 g/L potassium sulfate; and the buffer comprises 80 to 180 g/L sodium potassium tartrate.
A computer configured to execute an Allreduce collective, the computer comprising a plurality of interconnected processing nodes (N51-N59; N510-N512; N61; N62; N63) arranged in a configuration of multiple stacked layers of processing nodes forming a multi-face prism; wherein each face of the prism comprises multiple stacked pairs of processing nodes (N51; N52; N54; N56; N57; N59; N510; N511; N61; N62), wherein the processing nodes of each pair are connected by at least two intralayer links (L1,L2), and the processing node of each pair is connected to a corresponding processing node in an adjacent pair by at least one interlayer link; wherein the corresponding processing nodes (N53; ,N55; N 58 ,N512) are connected by respective interlayer links to form respective edges of the configuration; and wherein each pair of processing nodes forms part of one of the layers of the configuration, each layer comprising multiple processing nodes, each processing node connected to their neighbouring processing nodes in the layer by at least one of the intralayer links to form a ring; wherein the multiple stacked layers comprise first and second endmost layers, and at least one intermediate layer, wherein the processing nodes are programmed to operate the configuration to transmit data simultaneously around each of a plurality of embedded logical paths (R1; R2; R3) formed by the processing nodes and links, each embedded logical path having a first portion along which data is transmitted between the first and second endmost layers using all the processing nodes of the pairs in one of the faces of the configuration only once, and a second portion along which data is transmitted between the second and first endmost layers which form one of the edges of the configuration. wherein the multiple stacked layers comprise first and second endmost layers, and at least one intermediate layer, wherein the processing nodes are programmed to operate the configuration to transmit data simultaneously around each of a plurality of embedded logical paths (R1; R2; R3) formed by the processing nodes and links, each embedded logical path having a first portion along which data is transmitted between the first and second endmost layers using all the processing nodes of the pairs in one of the faces of the configuration only once, and a second portion along which data is transmitted between the second and first endmost layers which form one of the edges of the configuration.
A bonding apparatus comprising: a heat source ; a first plate coupled to the heat source , the first plate being thermally conductive and configured to cover an entire solar cell; a second plate , the second plate being thermally conductive and configured to cover the entire solar cell; and an actuation mechanism configured to move the bonding apparatus between an open position and a closed position, wherein in the open position the first plate and the second plate are apart, and in the closed position the first plate and the second plate contact opposite surfaces of the solar cell; wherein the second plate is configured to dissipate heat such that the second plate has a lower temperature than the first plate when the bonding apparatus is in the closed position; and wherein the first plate and the second plate are configured to apply a force to the solar cell, the force at a first end of the solar cell being different than the force at a second end of the solar cell when the bonding apparatus is in or moving to the closed position. a heat source ; a first plate coupled to the heat source , the first plate being thermally conductive and configured to cover an entire solar cell; a second plate , the second plate being thermally conductive and configured to cover the entire solar cell; and an actuation mechanism configured to move the bonding apparatus between an open position and a closed position, wherein in the open position the first plate and the second plate are apart, and in the closed position the first plate and the second plate contact opposite surfaces of the solar cell; wherein the second plate is configured to dissipate heat such that the second plate has a lower temperature than the first plate when the bonding apparatus is in the closed position; and wherein the first plate and the second plate are configured to apply a force to the solar cell, the force at a first end of the solar cell being different than the force at a second end of the solar cell when the bonding apparatus is in or moving to the closed position.
Rail mounting device for the sound-absorbing mounting and fastening of a rail , having a ribbed plate for arranging the rail on an upper side of the ribbed plate , a first damping means , preferably an elastomer bearing, and a frame , the first damping means being arranged between the ribbed plate and the frame , wherein a further damping means is provided below the ribbed plate to limit deflection, wherein a recess for receiving the further damping means is provided on the underside of the ribbed plate , wherein the first damping means extends with a support section over the height of the frame , wherein an arrangement section of the first damping means adjoining the support section is provided, which is spaced from the underside of the support section and has a receptacle for the arrangement of the ribbed plate , characterized in that the ribbed plate has a peripheral support region on the edge, the support region being arranged in the receptacle of the arrangement section of the first damping means , and the support region of the ribbed plate enclosing the recess of the ribbed plate . of the ribbed plate , a first damping means , preferably an elastomer bearing, and a frame , the first damping means being arranged between the ribbed plate and the frame , wherein a further damping means is provided below the ribbed plate to limit deflection, wherein a recess for receiving the further damping means is provided on the underside of the ribbed plate , wherein the first damping means extends with a support section over the height of the frame , wherein an arrangement section of the first damping means adjoining the support section is provided, which is spaced from the underside of the support section and has a receptacle for the arrangement of the ribbed plate , characterized in that the ribbed plate has a peripheral support region on the edge, the support region being arranged in the receptacle of the arrangement section of the first damping means , and the support region of the ribbed plate enclosing the recess of the ribbed plate .
A method for monitoring a machine tool , in particular a material-removing machine tool , having the steps of: (a) determining process variable measured values (B(i)) of a process variable (B) on the basis of a parameter, (b) determining whether the process variable measured values (B(i)) lie within a predefined tolerance range (T(i)) which depends on the parameter, (c) if not, outputting a warning signal and (d) constantly repeating steps (a) to (c), characterised by the step: (e) calculating the parameter as the argument of the tool trajectory from the real time (t) and at least one process parameter (O, Δt still ) which characterizes the processing speed of the machining process, so that the parameter is a control variable (i) which always characterizes a progress of the machining process. (a) determining process variable measured values (B(i)) of a process variable (B) on the basis of a parameter, (b) determining whether the process variable measured values (B(i)) lie within a predefined tolerance range (T(i)) which depends on the parameter, (c) if not, outputting a warning signal and (d) constantly repeating steps (a) to (c),