mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol generation device , comprising: - an aerosol generation chamber configured to receive and heat a substrate to generate aerosol, - a cover having a closed position covering the aerosol generation chamber , and an open position exposing the aerosol generation chamber , and - an ejection mechanism configured to be at least indirectly connected with the aerosol generation chamber and the cover , and having an ejected state, a holding-locked state, and a holding-unlocked state; wherein - in the ejected state, the cover is in the open position, and the ejection mechanism is configured to receive the substrate or make the received substrate at least partially protrude out of the aerosol generation chamber , and the ejection mechanism can be translated into the holding-locked state, - in the holding-locked state, the cover is in the open position, and the ejection mechanism is configured to hold the substrate in a predetermined position where the substrate is fully inserted in the aerosol generation chamber , and the ejection mechanism can be translated into the holding-unlocked state by moving the cover from the open position to the closed position, and - in the holding-unlocked state, the cover is in the closed position, and the ejection mechanism is configured to exert an ejection force on the substrate , which is held in the predetermined position by the cover , and the ejection mechanism can be translated into the ejected state by moving the cover from the closed position to the open position. - an aerosol generation chamber configured to receive and heat a substrate to generate aerosol, - a cover having a closed position covering the aerosol generation chamber , and an open position exposing the aerosol generation chamber , and - an ejection mechanism configured to be at least indirectly connected with the aerosol generation chamber and the cover , and having an ejected state, a holding-locked state, and a holding-unlocked state; - in the ejected state, the cover is in the open position, and the ejection mechanism is configured to receive the substrate or make the received substrate at least partially protrude out of the aerosol generation chamber , and the ejection mechanism can be translated into the holding-locked state, - in the holding-locked state, the cover is in the open position, and the ejection mechanism is configured to hold the substrate in a predetermined position where the substrate is fully inserted in the aerosol generation chamber , and the ejection mechanism can be translated into the holding-unlocked state by moving the cover from the open position to the closed position, and - in the holding-unlocked state, the cover is in the closed position, and the ejection mechanism is configured to exert an ejection force on the substrate , which is held in the predetermined position by the cover , and the ejection mechanism can be translated into the ejected state by moving the cover from the closed position to the open position.
A sub-system implementing a neural network portion , the sub-system comprising a first hardware module and a second hardware module , the first hardware module implementing a number N of pre-synaptic neurons capable each of firing an action potential, wherein N can be encoded in a word of n bits; the sub-system being configured for, upon firing of a number F of pre-synaptic neurons in a predetermined period of time: if F·n < N, generating a message of a first type, the message comprising a unique address for each pre-synaptic neuron having fired in said predetermined period of time, each address being encoded as a word of n bits; and if F·n > N, generating a message of a second type, the message comprising N bits and being encoded in words of n bits, wherein each one of said N pre-synaptic neurons is represented by a unique bit, each bit having a first value if the presynaptic neuron represented by the bit has fired in said predetermined period of time, and a second value otherwise; and sending the generated message of the first or second type to the second hardware module
A method for determining the length of a demountable platform , comprising: - using a hooklift to lift the demountable platform from the ground onto a vehicle, - determining a moment when the demountable platform comes into contact with rear rollers of the hooklift , - determining, at said moment, magnitudes of one or more physical quantities related to a position of the hooklift, and - calculating the length of the demountable platform using the determined magnitudes of the one or more physical quantities and the position and orientation information of the hooklift relative to the ground. - using a hooklift to lift the demountable platform from the ground onto a vehicle, - determining a moment when the demountable platform comes into contact with rear rollers of the hooklift , - determining, at said moment, magnitudes of one or more physical quantities related to a position of the hooklift, and - calculating the length of the demountable platform using the determined magnitudes of the one or more physical quantities and the position and orientation information of the hooklift relative to the ground.
Process for providing hydrogen gas, comprising the process steps - supplying hydrogen carrier medium having a first hydrogenation degree (hi), from a storage container of a storage unit (13; 13c; 13d) into a dehydrogenation reactor of a discharge unit (14b; 14c; 14d) having a plurality of dehydrogenation reactors , which are, depending on a load status, interconnected in a parallel and/or in a series arrangement, and wherein the storage unit (13; 13c; 13d) has a plurality of storage containers , which are performed to store the hydrogen carrier medium at different hydrogenation degree, - dehydrogenation of the hydrogen carrier medium to a second hydrogenation degree (h 2 ), which is lower than the first hydrogenation degree (h 1 ), and therewith release of hydrogen gas, wherein the difference between the first hydrogenation degree (h 1 ) and the second hydrogenation degree (h 2 ) lies within the scope of an optimal dehydrogenation stroke (ΔDH) for the minimization of the total installation space. - supplying hydrogen carrier medium having a first hydrogenation degree (hi), from a storage container of a storage unit (13; 13c; 13d) into a dehydrogenation reactor of a discharge unit (14b; 14c; 14d) having a plurality of dehydrogenation reactors , which are, depending on a load status, interconnected in a parallel and/or in a series arrangement, and wherein the storage unit (13; 13c; 13d) has a plurality of storage containers , which are performed to store the hydrogen carrier medium at different hydrogenation degree, - dehydrogenation of the hydrogen carrier medium to a second hydrogenation degree (h 2 ), which is lower than the first hydrogenation degree (h 1 ), and therewith release of hydrogen gas,
A data processing method performed by a blockchain node comprising a first thread and a second thread, the blockchain node being configured to use the first thread to perform consensus processing on validation ready preprocessing blocks and the second thread to perform data processing on validated preprocessing blocks, the method comprising: pre-configuring a processor to perform an operation involved in a service submission stage; obtaining (S101) a validation ready preprocessing block; validating (S101), by using the first thread, the preprocessing block during a service consensus stage; if it is determined that the preprocessing block is validated, starting (S102) to validate, by using the first thread, a next validation ready preprocessing block; and performing (SI02), by using the second thread in parallel with the service consensus stage, data processing on service data in the validated preprocessing block during the service submission stage. pre-configuring a processor to perform an operation involved in a service submission stage; obtaining (S101) a validation ready preprocessing block; validating (S101), by using the first thread, the preprocessing block during a service consensus stage; if it is determined that the preprocessing block is validated, starting (S102) to validate, by using the first thread, a next validation ready preprocessing block; and performing (SI02), by using the second thread in parallel with the service consensus stage, data processing on service data in the validated preprocessing block during the service submission stage.
A component supply unit arrangement determination method for a mounter , in which multiple component supply units are exchangeably arranged and which mounts a component on a board based on a job, the component supply unit arrangement determination method comprising: a) a step of selecting the component supply unit as the component supply unit to be exchanged with a component supply unit to be newly arranged with respect to switching of multiple jobs whose execution order is determined, in a way such that a time interval between a last job, in which the component supply unit to be exchanged is to be used last, and the switching becomes long, the component supply unit to be exchanged being selected among said component supply units that are arranged before the switching and are not planned to be used in a job after the switching; characterized in that in the step a), the component supply unit whose last job is the earliest job within the determined execution order of jobs, is preferentially selected; and b) a step of determining an arrangement position of the component supply unit to be exchanged selected in the step a) as an arrangement position of the component supply unit to be newly arranged. a) a step of selecting the component supply unit as the component supply unit to be exchanged with a component supply unit to be newly arranged with respect to switching of multiple jobs whose execution order is determined, in a way such that a time interval between a last job, in which the component supply unit to be exchanged is to be used last, and the switching becomes long, the component supply unit to be exchanged being selected among said component supply units that are arranged before the switching and are not planned to be used in a job after the switching; characterized in that in the step a), the component supply unit whose last job is the earliest job within the determined execution order of jobs, is preferentially selected; and b) a step of determining an arrangement position of the component supply unit to be exchanged selected in the step a) as an arrangement position of the component supply unit to be newly arranged.
A method of fabricating a circuit element comprising: obtaining a first lithography mask write file comprising mask information characterizing at least one mask feature; obtaining a uniformity function configured to modify the mask information characterizing the at least one mask feature to compensate for a non-uniform deposition process; and applying the uniformity function to the first lithography mask write file to obtain a first modified lithography mask write file , wherein the obtaining the uniformity function comprises deriving one or more geometric arguments that determine a geometric relationship between a set of one or more deposition parameters and a resulting effect the deposition parameter has on a deposition, deriving, from a calibration process , an empirical function that characterizes how deposition data varies as a function of the set of one or more deposition parameters, or a combination thereof. obtaining a first lithography mask write file comprising mask information characterizing at least one mask feature; obtaining a uniformity function configured to modify the mask information characterizing the at least one mask feature to compensate for a non-uniform deposition process; and applying the uniformity function to the first lithography mask write file to obtain a first modified lithography mask write file , wherein the obtaining the uniformity function comprises deriving one or more geometric arguments that determine a geometric relationship between a set of one or more deposition parameters and a resulting effect the deposition parameter has on a deposition, deriving, from a calibration process , an empirical function that characterizes how deposition data varies as a function of the set of one or more deposition parameters, or a combination thereof. wherein the obtaining the uniformity function comprises deriving one or more geometric arguments that determine a geometric relationship between a set of one or more deposition parameters and a resulting effect the deposition parameter has on a deposition, deriving, from a calibration process , an empirical function that characterizes how deposition data varies as a function of the set of one or more deposition parameters, or a combination thereof.
Method of stretch blow molding containers from preforms (P) in a blow molding station of a stretch-blow molding machine , wherein in the blow molding station at least one split blow mold , an adjustable blow nozzle with a cycle-controlled valve section , an adjustable stretching rod with a cycle-controlled stretching rod drive system (A), and an electronic control unit at least for controlling the stretching rod drive system (A) are provided, and wherein in the method, when the blow nozzle is lifted from the opened blow mold and the stretching rod is retracted, a preform (P) is inserted into the blow mold, the blow mold is closed and locked, the blow nozzle is placed onto the preform (P) in a sealing manner, and the stretching rod is inserted until it approaches and/or contacts a preform bottom and is displaced, under pressure application of the preform (P) via the blow nozzle , close to the bottom of the mold cavity of the blow mold , characterized in that in the production process of a container, the movement of the stretching rod is initiated by means of an electric stretching rod servomotor at the latest with the beginning of or during the locking phase of the blow mold and/or before the blow nozzle is placed onto the preform (P) and the stretching rod is displaced into a position in which the free end of the stretching rod either very closely approaches the preform bottom or contacts the preform bottom, or the preform (P) is already prestretched.
An apparatus comprising: a gas turbine engine having a nozzle ejector , an exhaust flow from the gas turbine engine forming the primary fluid of the nozzle ejector ; a passageway operable to convey at least a portion of a boundary layer air withdrawn from a flow stream surface upstream of the nozzle ejector ; and a moveable ejector selector having an open position and a closed position, the open position forming an open position secondary airflow path from an exterior location of the nozzle ejector to the primary fluid of the nozzle ejector , the closed position forming a closed position secondary airflow path from the flow stream surface, through the passageway , and to the primary fluid of the nozzle ejector . a gas turbine engine having a nozzle ejector , an exhaust flow from the gas turbine engine forming the primary fluid of the nozzle ejector ; a passageway operable to convey at least a portion of a boundary layer air withdrawn from a flow stream surface upstream of the nozzle ejector ; and a moveable ejector selector having an open position and a closed position, the open position forming an open position secondary airflow path from an exterior location of the nozzle ejector to the primary fluid of the nozzle ejector , the closed position forming a closed position secondary airflow path from the flow stream surface, through the passageway , and to the primary fluid of the nozzle ejector .
A catalyst, preferably for use in selective catalytic reduction (SCR), said catalyst comprising one or more zeolites of the MFI structure type, and one or more zeolites of the CHA structure type, wherein at least part of the one or more zeolites of the MFI structure type contain iron (Fe), and wherein at least part of the one or more zeolites of the CHA structure type contain copper (Cu), wherein the weight ratio of the one or more zeolites of the MFI structure type relative to the one or more zeolites of the CHA structure type ranges from 1 : 2 to 2 : 1, wherein the molar ratio of silica to alumina (SAR) in the one or more zeolites of the MFI structure type ranges from 20 to 50, wherein the molar ratio of silica to alumina (SAR) in the one or more zeolites of the CHA structure type ranges from 20 to 55, wherein the amount of Fe in the one or more zeolites of the MFI structure type ranges from 2.5 to 5.5 wt-% based on the weight of said one or more zeolites, wherein the amount of Cu in the one or more zeolites of the CHA structure type ranges from 1.0 to 4.0 wt-% based on the weight of said one or more zeolites, and wherein either the one or more zeolites of the MFI structure type, or the one or more zeolites of the CHA structure type, or both the one or more zeolites of the MFI structure type and the one or more zeolites of the CHA structure type, are respectively present in the catalyst in a loading ranging from 0.006 to 0.31 g/cm 3 (0.1 to 5.0 g/in 3 ).
A method of performing a treatment of a particulate raw material capable of being thermally converted at a temperature of > 100°C, said treatment comprising depositing a liquid composition on the raw material, said liquid composition comprising a hydrocarbon; wherein the liquid composition comprises paraffin - having a carbon chain length between 18 and 70 carbon atoms, and - a solidification point between 15 and 90°C ; characterized in that the paraffin comprises more than 20% by wt./wt. of iso-paraffins, and preferably more than 30% by wt./wt. - having a carbon chain length between 18 and 70 carbon atoms, and - a solidification point between 15 and 90°C ; characterized in that the paraffin comprises more than 20% by wt./wt. of iso-paraffins, and preferably more than 30% by wt./wt.
Method for determining a correction value (Δγ) for a control device for an electric machine , wherein the correction value describes an angular difference between a position of a d-axis of the electric machine assumed in an initial configuration of the control device on the basis of rotor position information of a rotor position encoder and an actual position of the d-axis, wherein a zero current is impressed in stator windings of the electric machine and the correction value is determined in a rotating state of a rotor of the electric machine depending on - a d-voltage value ( u d ), which describes a d-component of a stator voltage predetermined by the control device in the initial configuration, and - a q-voltage value ( u q ), which describes a q-component of the stator voltage predetermined by the control device in the initial configuration, characterized in that the correction value (Δγ) is determined in the rotating state of the rotor of the electric machine further depending on - a flux value ( ψ ), which describes a magnetic flux of the rotor, - a rotational speed value ( ω el ), which describes the rotational speed of the rotor in the rotating state, and - a calibration value (Δ u d ), which describes a rotational speed-dependent voltage error of the d-component ( u d ) of the stator voltage. - a d-voltage value ( u d ), which describes a d-component of a stator voltage predetermined by the control device in the initial configuration, and - a q-voltage value ( u q ), which describes a q-component of the stator voltage predetermined by the control device in the initial configuration, - a flux value ( ψ ), which describes a magnetic flux of the rotor, - a rotational speed value ( ω el ), which describes the rotational speed of the rotor in the rotating state, and - a calibration value (Δ u d ), which describes a rotational speed-dependent voltage error of the d-component ( u d ) of the stator voltage.
A central augment for use in a shoulder replacement procedure, the central augment comprising: a body including a curved glenoid engagement surface shaped to interface with a central portion of a reamed glenoid and a second surface opposite the curved glenoid engagement surface a protrusion extending from the second surface , the protrusion sized to be received within a bore defined by a boss of a glenoid component ; and a post extending from the glenoid engagement surface , the post sized to be received in a bore formed in the central portion of the glenoid, wherein at least one of the body and the post includes a porous metal coating , characterised in that the second surface defines a recess sized to receive the boss of the glenoid component , wherein the protrusion extends within the recess. a body including a curved glenoid engagement surface shaped to interface with a central portion of a reamed glenoid and a second surface opposite the curved glenoid engagement surface a protrusion extending from the second surface , the protrusion sized to be received within a bore defined by a boss of a glenoid component ; and a post extending from the glenoid engagement surface , the post sized to be received in a bore formed in the central portion of the glenoid, wherein at least one of the body and the post includes a porous metal coating , characterised in that the second surface defines a recess sized to receive the boss of the glenoid component , wherein the protrusion extends within the recess.
An absorbent article comprising: an absorber ; and a top sheet that covers a front surface side of the absorber , the top sheet being formed of a nonwoven fabric, a plurality of dome-shaped convexes protruding to the front surface side being arranged on the top sheet , grooves being formed between adjacent convexes , wherein through-holes penetrating the top sheet in a thickness direction are provided at intervals in a circumferential direction of each of the convexes , the through-holes having front and back sides, peripheral edge portions of the through-holes are high-density portions where constituent fibers of the nonwoven fabric are pushed to parts around the through-holes from positions corresponding to the through-holes , the high-density portions are not compressed in the thickness direction, the peripheral edge portions of the through-holes rise to both the front and back sides, a part of peripheral edges of the convexes is formed by a part of the peripheral edge portions of the through-holes , and a difference between a maximum value and a minimum value of an apparent thickness is in a range of 0 to 50% of the maximum value in a portion of the top sheet excluding the peripheral edge portions of the through-holes . an absorber ; and a top sheet that covers a front surface side of the absorber , the top sheet being formed of a nonwoven fabric, a plurality of dome-shaped convexes protruding to the front surface side being arranged on the top sheet , grooves being formed between adjacent convexes , wherein through-holes penetrating the top sheet in a thickness direction are provided at intervals in a circumferential direction of each of the convexes , the through-holes having front and back sides, peripheral edge portions of the through-holes are high-density portions where constituent fibers of the nonwoven fabric are pushed to parts around the through-holes from positions corresponding to the through-holes , the high-density portions are not compressed in the thickness direction, the peripheral edge portions of the through-holes rise to both the front and back sides, a part of peripheral edges of the convexes is formed by a part of the peripheral edge portions of the through-holes , and a difference between a maximum value and a minimum value of an apparent thickness is in a range of 0 to 50% of the maximum value in a portion of the top sheet excluding the peripheral edge portions of the through-holes .