mhurhangee/patent-ind-claim-en huggingface dataset:
An automotive wash system containing a fluidic, shear, or jet nozzle for washing sensors or lens components for automotive devices as well as glazing, mirrors and headlamps, comprising: a source of fluid capable of providing a supply fluid flow rate of between 1 and 2500ml/min with a supply pressure of between 1 and 80psi; a spray nozzle ; a pressure control device fluidly connected between said source of fluid and said nozzle in such a way that flow to the nozzle does not exceed 90% of the nominal flow rate without the pressure control device for supply pressures between 30 and 60psi, or with a lower target flowrate for the same pressure range; wherein the pressure control device is an elastomeric body incorporating multiple flexible tabs in a fluid flow path through the body and wherein the flexible tabs are responsive to flow rate and pressure to vary the area of the flow path. a source of fluid capable of providing a supply fluid flow rate of between 1 and 2500ml/min with a supply pressure of between 1 and 80psi; a spray nozzle ; a pressure control device fluidly connected between said source of fluid and said nozzle in such a way that flow to the nozzle does not exceed 90% of the nominal flow rate without the pressure control device for supply pressures between 30 and 60psi, or with a lower target flowrate for the same pressure range; wherein the pressure control device is an elastomeric body incorporating multiple flexible tabs in a fluid flow path through the body and wherein the flexible tabs are responsive to flow rate and pressure to vary the area of the flow path.
An insole of a shoe or an out sole of a shoe formed of an integrated layered sheet of a plurality of cloths , wherein the cloths are formed of a strand of an oriented olefin-based polymer, and the plurality of cloths are configured to be integrated by heating at a heating temperature and compressing, characterised in that the strand contains a low-melting point resin component whose melting point is the same as or lower than the heating temperature and a high-melting point resin component whose melting point is higher than the heating temperature, the low-melting point resin component and the high-melting point resin component are the same type of resin component, the integrated layered sheet is configured to be formed by disposing an adhesive film between a plurality of the cloths and melting part or all of the adhesive film. the cloths are formed of a strand of an oriented olefin-based polymer, and the plurality of cloths are configured to be integrated by heating at a heating temperature and compressing, characterised in that the strand contains a low-melting point resin component whose melting point is the same as or lower than the heating temperature and a high-melting point resin component whose melting point is higher than the heating temperature, the low-melting point resin component and the high-melting point resin component are the same type of resin component, the integrated layered sheet is configured to be formed by disposing an adhesive film between a plurality of the cloths and melting part or all of the adhesive film.
A method for measuring a cell, comprising: receiving, by a terminal device, a first measurement configuration from a first cell, wherein the first measurement configuration is used for configuring configuration information for the terminal device to perform a measurement in an idle state or an inactive state (S310); characterized by comprising: determining, by the terminal device, whether the first cell supports multi-radio access technology dual-connection, MR-DC, wherein the measurement of a frequency corresponding to a secondary node, SN, radio access technology, RAT is not performed when the first cell does not support multi-radio access technology dual-connection, MR-DC; wherein the first cell and the SN belong to different RATs. receiving, by a terminal device, a first measurement configuration from a first cell, wherein the first measurement configuration is used for configuring configuration information for the terminal device to perform a measurement in an idle state or an inactive state (S310); characterized by comprising: determining, by the terminal device, whether the first cell supports multi-radio access technology dual-connection, MR-DC, wherein the measurement of a frequency corresponding to a secondary node, SN, radio access technology, RAT is not performed when the first cell does not support multi-radio access technology dual-connection, MR-DC; wherein the first cell and the SN belong to different RATs.
Pipe compensator for connecting two pipe ends, preferably in a beverage filling plant, comprising a first connecting portion , a second connecting portion and a bellows situated between the first connecting portion and the second connecting portion , wherein the bellows is designed to be drainable, in that the folds of the bellows are filled with material reinforcements in the region of a pipe base , in order to form a flat pipe base , and/or the folds of the bellows are filled in the region of a pipe roof with material reinforcements in order to form a pipe roof , wherein the pipe roof is preferably formed to be situated opposite to the pipe base , characterised in that the longitudinal axis (L) of the connection portions is spaced from the longitudinal axis (LF) of the bellows .
A pouch-type secondary battery, comprising: a battery case made of a laminate sheet; and an electrode assembly received in the battery case , wherein the battery case is composed of an upper case and a lower case made of a laminate sheet comprising an outer coating layer , a metal layer and an inner coating layer , a sealing portion configured to couple the upper case and the lower case to each other is provided at an outer periphery of the upper case and the lower case , a conformal coating layer configured to prevent exposure of the metal layer is formed at a side surface of the sealing portion , and wherein a resin coating layer is further formed on a predetermined area of an outer surface of the conformal coating layer , the resin coating layer being formed by melting a portion of the outer coating layer , or a resin coating layer is further formed on a predetermined area of an inner surface of the conformal coating layer , the resin coating layer being formed by melting a portion of the outer coating layer and/or the inner coating layer . a battery case made of a laminate sheet; and an electrode assembly received in the battery case , wherein the battery case is composed of an upper case and a lower case made of a laminate sheet comprising an outer coating layer , a metal layer and an inner coating layer , a sealing portion configured to couple the upper case and the lower case to each other is provided at an outer periphery of the upper case and the lower case , a conformal coating layer configured to prevent exposure of the metal layer is formed at a side surface of the sealing portion , and wherein a resin coating layer is further formed on a predetermined area of an outer surface of the conformal coating layer , the resin coating layer being formed by melting a portion of the outer coating layer , or
A method of analysis, the method comprising: detecting fluorescence representing an oscillating ion flux associated with one or more biological cells , to produce a series of data points describing an oscillation pattern , wherein the oscillation pattern comprises a series of events , wherein the oscillation pattern crosses a predefined trigger level twice for each event , and wherein the trigger level is set relative to a baseline of the oscillation pattern ; identifying primary peaks and secondary peaks in the oscillation pattern , wherein each event includes a single primary peak and wherein each of the secondary peaks is included in an event of the series of events , and wherein each secondary peak is any peak following the primary peak within an event; and determining an aspect of the secondary peaks ; wherein detecting, identifying, and determining are performed for each separate set of a plurality of separate sets of one or more biological cells , and wherein each separate set is exposed to a different compound or to a different concentration of the same compound; further comprising determining an effect, if any, of each different compound or concentration on the aspect of the secondary peaks ; and predicting a degree of cardiotoxicity or neurotoxicity of each compound or concentration based on the aspect of the secondary peaks, and a spacing or amplitude regularity or irregularity of the primary peaks or a number, frequency, or period of primary peaks that are smaller peaks having an amplitude below a predefined threshold. detecting fluorescence representing an oscillating ion flux associated with one or more biological cells , to produce a series of data points describing an oscillation pattern , wherein the oscillation pattern comprises a series of events , wherein the oscillation pattern crosses a predefined trigger level twice for each event , and wherein the trigger level is set relative to a baseline of the oscillation pattern ; identifying primary peaks and secondary peaks in the oscillation pattern , wherein each event includes a single primary peak and wherein each of the secondary peaks is included in an event of the series of events , and wherein each secondary peak is any peak following the primary peak within an event; and determining an aspect of the secondary peaks ; wherein detecting, identifying, and determining are performed for each separate set of a plurality of separate sets of one or more biological cells , and wherein each separate set is exposed to a different compound or to a different concentration of the same compound; further comprising determining an effect, if any, of each different compound or concentration on the aspect of the secondary peaks ; and predicting a degree of cardiotoxicity or neurotoxicity of each compound or concentration based on the aspect of the secondary peaks, and a spacing or amplitude regularity or irregularity of the primary peaks or a number, frequency, or period of primary peaks that are smaller peaks having an amplitude below a predefined threshold.
Method for controlling a power converter including at least three arms connected in parallel, each arm comprising a series assembly of a unidirectional top switch and of a unidirectional bottom switch which are connected on either side of a connection point which is suitable for being connected to a phase of a power supply network, each unidirectional switch including a series assembly of a controlled circuit breaker and of a diode, the two diodes of a same arm being assembled in the same conducting direction, the method including a plurality of sequences each comprising at least the closure of a top circuit breaker and of a bottom circuit breaker of two separate arms, each sequence further comprising at least one freewheeling phase corresponding to the closure of the two circuit breakers of a same arm, characterized in that : - prior to each sequence start, the connection potentials of each arm are measured, - the measured potentials are compared, and the arm with the largest potential and the arm with the smallest potential are determined, - the closure of the top switch of the arm with the smallest measured electric potential and of the bottom switch of the arm with the largest measured electric potential is controlled, said closure being maintained for the entire sequence at least outside of the freewheeling phases. - prior to each sequence start, the connection potentials of each arm are measured, - the measured potentials are compared, and the arm with the largest potential and the arm with the smallest potential are determined, - the closure of the top switch of the arm with the smallest measured electric potential and of the bottom switch of the arm with the largest measured electric potential is controlled, said closure being maintained for the entire sequence at least outside of the freewheeling phases.
An out of order processor, comprising: a distributed load / store queue having multiple load queues and store queues (load queue A, load queue B), wherein dispatched instructions (LD3, LD4, LD7, LD8, LD9) comprise access addresses mapped to a specific load or store queue of the multiple load queues and store queues (load queue A, load queue B), wherein the distributed load / store queue maintains single program sequential semantics while being configured for an out of order dispatch of loads and stores (SD, LD) across a plurality of cores (core 1 - core 4) and memory fragments wherein other instructions (Add) besides loads and stores (SD; LD) can be dispatched and executed even though intervening loads or stores (SD; LD) do not have spaces in the load/store queues (load queue A, load queue B), wherein each of the plurality of cores (core 1-4) within the processor includes a load / store queue (load queue A, load queue B) and an extension queue (reserve portion A, reserve portion B) for the respective load /store queue (load queue A, load queue B) configured for avoiding deadlocks, by allocating deadlocked loads or stores (LD1, LD2) to the extension queue (reserve portion A, reserve portion B) in program order from a point of the load or store (LD2) that causes a deadlock until the load or store queue (load queue A, load queue B) has free entries available. a distributed load / store queue having multiple load queues and store queues (load queue A, load queue B), wherein dispatched instructions (LD3, LD4, LD7, LD8, LD9) comprise access addresses mapped to a specific load or store queue of the multiple load queues and store queues (load queue A, load queue B), wherein the distributed load / store queue maintains single program sequential semantics while being configured for an out of order dispatch of loads and stores (SD, LD) across a plurality of cores (core 1 - core 4) and memory fragments wherein other instructions (Add) besides loads and stores (SD; LD) can be dispatched and executed even though intervening loads or stores (SD; LD) do not have spaces in the load/store queues (load queue A, load queue B), wherein each of the plurality of cores (core 1-4) within the processor includes a load / store queue (load queue A, load queue B) and an extension queue (reserve portion A, reserve portion B) for the respective load /store queue (load queue A, load queue B) configured for avoiding deadlocks, by allocating deadlocked loads or stores (LD1, LD2) to the extension queue (reserve portion A, reserve portion B) in program order from a point of the load or store (LD2) that causes a deadlock until the load or store queue (load queue A, load queue B) has free entries available.
Method for producing a contact component for an electrical switch having a contact surface for closing an electrical contact, wherein • the contact component is produced at least partially from powder, and • different powder types are used to produce different material compositions in the contact component , wherein use is made of a powder-bed-based additive manufacturing method, in which • the contact component is produced at least partially in a sequence of layers in a powder bed , • powders of different powder types are combined in at least some of the layers to produce different material compositions, wherein the powders of different powder types are combined in that multiple metering devices are used to introduce them into at least one of the layers to be produced of the powder bed , characterized in that at least one of the metering devices is in the form of a pouring device and is guided over the surface of the powder bed with a spacing, wherein the powder of a first powder type is metered by pouring. • the contact component is produced at least partially from powder, and • different powder types are used to produce different material compositions in the contact component , wherein use is made of a powder-bed-based additive manufacturing method, in which • the contact component is produced at least partially in a sequence of layers in a powder bed , • powders of different powder types are combined in at least some of the layers to produce different material compositions, • the contact component is produced at least partially in a sequence of layers in a powder bed , • powders of different powder types are combined in at least some of the layers to produce different material compositions, wherein the powders of different powder types are combined in that multiple metering devices are used to introduce them into at least one of the layers to be produced of the powder bed , characterized in that at least one of the metering devices is in the form of a pouring device and is guided over the surface of the powder bed with a spacing, wherein the powder of a first powder type is metered by pouring.
A method of treating incinerated waste, the method comprising: size separating at least some of the incinerated waste, according to a first separation size, into a first undersize fraction comprising particles smaller than the first separation size and into a first oversize fraction comprising particles larger than the first separation size; size reducing at least some of the first oversize fraction into a size-reduced first oversize fraction; size separating at least some of the size-reduced first oversize fraction, according to a second separation size, into a second undersize fraction comprising particles smaller than the second separation size and into a second oversize fraction comprising particles larger than the second separation size; combining at least some of the first undersize fraction and at least some of the second undersize fraction into the fine fraction; and extracting metal from at least some of the fine fraction, wherein extracting metal from the at least some of the fine fraction comprises extracting metal by froth flotation of the at least some of the fine fraction. size separating at least some of the incinerated waste, according to a first separation size, into a first undersize fraction comprising particles smaller than the first separation size and into a first oversize fraction comprising particles larger than the first separation size; size reducing at least some of the first oversize fraction into a size-reduced first oversize fraction; size separating at least some of the size-reduced first oversize fraction, according to a second separation size, into a second undersize fraction comprising particles smaller than the second separation size and into a second oversize fraction comprising particles larger than the second separation size; combining at least some of the first undersize fraction and at least some of the second undersize fraction into the fine fraction; and extracting metal from at least some of the fine fraction, wherein extracting metal from the at least some of the fine fraction comprises extracting metal by froth flotation of the at least some of the fine fraction.
A synchronization signal sending method, comprising: determining a target frequency resource, wherein a frequency domain position of the target frequency resource is determined based on a frequency interval of synchronization channels and meets the following relation: p = offset + n ∗ frequency _ interval , wherein p is the frequency domain position of the target frequency resource, offset is a frequency domain position offset, n is a preset integer, and frequency_interval is the frequency interval of synchronization channels, wherein the frequency interval of synchronization channels meets 2 m times 180 kHz or 2 m times 360 kHz, and wherein m is a preset nonnegative integer and a value range of m is determined based on a frequency band used by a system; and sending a synchronization signal by using the target frequency resource. determining a target frequency resource, wherein a frequency domain position of the target frequency resource is determined based on a frequency interval of synchronization channels and meets the following relation: p = offset + n ∗ frequency _ interval , wherein p is the frequency domain position of the target frequency resource, offset is a frequency domain position offset, n is a preset integer, and frequency_interval is the frequency interval of synchronization channels, wherein the frequency interval of synchronization channels meets 2 m times 180 kHz or 2 m times 360 kHz, and wherein m is a preset nonnegative integer and a value range of m is determined based on a frequency band used by a system; and sending a synchronization signal by using the target frequency resource.
A method of recognizing text in a terminal , the method comprising: generating first tag information including information about a kind of language set in a user interface, Ul, for inputting text and a location of a cursor at a time point when a text input has started, when the UI for inputting text displayed on the terminal is executed; when a language switch request that requests the terminal to switch the kind of language set in the UI is received, generating second tag information including information about a kind of switched language and a location of the cursor at a time point of receiving the language switch request; when the text input is finished, storing a screen image of the terminal ; and recognizing the text input to the terminal based on at least one piece of tag information and the screen image . generating first tag information including information about a kind of language set in a user interface, Ul, for inputting text and a location of a cursor at a time point when a text input has started, when the UI for inputting text displayed on the terminal is executed; when a language switch request that requests the terminal to switch the kind of language set in the UI is received, generating second tag information including information about a kind of switched language and a location of the cursor at a time point of receiving the language switch request; when the text input is finished, storing a screen image of the terminal ; and recognizing the text input to the terminal based on at least one piece of tag information and the screen image .
A polyester resin for heat-shrinkable film which contains terephthalic acid as a main component of a dicarboxylic acid component, contains ethylene glycol as a main component of a diol component, and contains from 18 to 32% by mole of neopentyl glycol and from 7 to 15% by mole of diethylene glycol when a total amount of the whole diol component in total polyester resin components is taken as 100% by mole, characterized in that the polyester resin satisfies the following requirements (i) to (iv): (i) The polyester resin has an intrinsic viscosity (IV) of not less than 0.65 and less than 0.70 dl/g; (ii) The polyester resin has a carboxyl end group concentration (AV) of from 8 to 25 eq/t; (iii) The polyester resin has a color b value of from 1.0 to 8.0 in an L*a*b* color system; and (iv) The polyester resin contains aluminum atom and phosphorus atom, wherein an amount of the aluminum atom in the polyester resin is 15 to 40 ppm and wherein a molar ratio of the phosphorus atom to the aluminum atom in the polyester resin is 1.8 to 2.6, wherein the intrinsic viscosity, the carboxyl end group concentration, the colour b value and the amounts of aluminum and phosphorous atoms are determined as set out in the description. (i) The polyester resin has an intrinsic viscosity (IV) of not less than 0.65 and less than 0.70 dl/g; (ii) The polyester resin has a carboxyl end group concentration (AV) of from 8 to 25 eq/t; (iii) The polyester resin has a color b value of from 1.0 to 8.0 in an L*a*b* color system; and (iv) The polyester resin contains aluminum atom and phosphorus atom, wherein an amount of the aluminum atom in the polyester resin is 15 to 40 ppm and wherein a molar ratio of the phosphorus atom to the aluminum atom in the polyester resin is 1.8 to 2.6,