mhurhangee/ep-ind-claims huggingface dataset:
A fluid flow testing apparatus comprising: a rotatable container carrier being configured to hold a first or a second container; an assembly being configured to provide a first position and a second position for said rotatable container carrier, and being configured to rotate the rotatable container carrier between said first position allowing fluid to be retained within the first or second container and said second position causing fluid to be poured from the first or second container; sensors (51, 52, 53) being configured to sense the weight of the first or second container as fluid is poured from the first or second container; and a controller for receiving input signals from the sensors to record change in weight of the container over time as liquid is poured from the first or second container as the first or second container is rotated, wherein the controller is configured to generate a first graphical pour profile of the first container based on the change in weight of the first container over time, and a second graphical pour profile of the second container, based on the change in weight over time of the second container, to determine which of the first and second containers pours faster or slower and/or exhibits more glugging. a rotatable container carrier being configured to hold a first or a second container; an assembly being configured to provide a first position and a second position for said rotatable container carrier, and being configured to rotate the rotatable container carrier between said first position allowing fluid to be retained within the first or second container and said second position causing fluid to be poured from the first or second container; sensors (51, 52, 53) being configured to sense the weight of the first or second container as fluid is poured from the first or second container; and a controller for receiving input signals from the sensors to record change in weight of the container over time as liquid is poured from the first or second container as the first or second container is rotated, wherein the controller is configured to generate a first graphical pour profile of the first container based on the change in weight of the first container over time, and a second graphical pour profile of the second container, based on the change in weight over time of the second container, to determine which of the first and second containers pours faster or slower and/or exhibits more glugging.
An aqueous ionomer dispersion comprising an ionomer composition and water, wherein the ionomer composition comprises: a) at least 20 wt.%, based on the total weight percent of the ionomer composition, of an ionomer, wherein the ionomer is an ethylene acid copolymer that is at least partially neutralized, wherein the ethylene acid copolymer is the polymerized reaction product of: from 70 to 85 wt.% of ethylene; and from 15 to 30 wt.% of a monocarboxylic acid, based on the total weight of monomers present in the ethylene acid copolymer; wherein at least 70 mole % of total acid units of the ethylene acid copolymer are neutralized, with from 15 mole % to 50 mole % of total acid units of the ethylene acid copolymer being neutralized with a zinc cation and at least 40 mole % of total acid units of the ethylene acid copolymer being neutralized with a monovalent cation; and b) up to 80 wt.%, based on the total weight percent of the ionomer composition, of a polyolefin. a) at least 20 wt.%, based on the total weight percent of the ionomer composition, of an ionomer, wherein the ionomer is an ethylene acid copolymer that is at least partially neutralized, wherein the ethylene acid copolymer is the polymerized reaction product of: from 70 to 85 wt.% of ethylene; and from 15 to 30 wt.% of a monocarboxylic acid, based on the total weight of monomers present in the ethylene acid copolymer; wherein at least 70 mole % of total acid units of the ethylene acid copolymer are neutralized, with from 15 mole % to 50 mole % of total acid units of the ethylene acid copolymer being neutralized with a zinc cation and at least 40 mole % of total acid units of the ethylene acid copolymer being neutralized with a monovalent cation; and from 70 to 85 wt.% of ethylene; and from 15 to 30 wt.% of a monocarboxylic acid, based on the total weight of monomers present in the ethylene acid copolymer; wherein at least 70 mole % of total acid units of the ethylene acid copolymer are neutralized, with from 15 mole % to 50 mole % of total acid units of the ethylene acid copolymer being neutralized with a zinc cation and at least 40 mole % of total acid units of the ethylene acid copolymer being neutralized with a monovalent cation; and b) up to 80 wt.%, based on the total weight percent of the ionomer composition, of a polyolefin.
A vehicle lighting device, comprising: a socket; a substrate provided on one end portion side of the socket; a plurality of light emitting elements provided on the substrate; and a control element provided on the substrate and electrically connected to the plurality of light emitting elements, wherein the control element is configured to turn on some of the plurality of light emitting elements when an input voltage is lower than a first voltage; turn on all of the plurality of light emitting elements when the input voltage exceeds a second voltage higher than the first voltage; characterized in that the control element is further configured to turn on all of the plurality of light emitting elements and change at least one of a total luminous flux of the plurality of light emitting elements and a current flowing through the plurality of light emitting elements according to the input voltage when the input voltage is equal to or higher than the first voltage and equal to or lower than the second voltage. a socket; a substrate provided on one end portion side of the socket; a plurality of light emitting elements provided on the substrate; and a control element provided on the substrate and electrically connected to the plurality of light emitting elements, wherein the control element is configured to turn on some of the plurality of light emitting elements when an input voltage is lower than a first voltage; turn on all of the plurality of light emitting elements when the input voltage exceeds a second voltage higher than the first voltage; characterized in that the control element is further configured to turn on all of the plurality of light emitting elements and change at least one of a total luminous flux of the plurality of light emitting elements and a current flowing through the plurality of light emitting elements according to the input voltage when the input voltage is equal to or higher than the first voltage and equal to or lower than the second voltage.
A method of receiving a downlink channel for a narrowband by a user equipment, UE, in a wireless communication system, the method comprising: receiving a narrowband secondary synchronization signal, NSSS, and a system information block type 1 - narrowband, SIB1-NB, via 256 continuous radio frames; and receiving the downlink channel for the narrowband based on the NSSS and the SIB1-NB, wherein each of the 256 continuous radio frames comprises 10 subframes, wherein the NSSS is received on subframe having index n in first radio frames having even-numbered index among the 256 continuous radio frames, wherein the SIB1-NB is received on subframe having index n in second radio frames having odd-numbered index among 16 continuous radio frames within the 256 continuous radio frames, wherein the SIB1-NB is not received on radio frames other than the 16 continuous radio frames within the 256 continuous radio frames, wherein a starting radio frame of the 16 continuous radio frames within the 256 continuous radio frames is determined based on a number of narrowband physical downlink shared channel, NPDSCH, repetitions and cell identifier related to the SIB1-NB, and wherein n is an integer between 0 and 9. receiving a narrowband secondary synchronization signal, NSSS, and a system information block type 1 - narrowband, SIB1-NB, via 256 continuous radio frames; and receiving the downlink channel for the narrowband based on the NSSS and the SIB1-NB, wherein each of the 256 continuous radio frames comprises 10 subframes, wherein the NSSS is received on subframe having index n in first radio frames having even-numbered index among the 256 continuous radio frames, wherein the SIB1-NB is received on subframe having index n in second radio frames having odd-numbered index among 16 continuous radio frames within the 256 continuous radio frames, wherein the SIB1-NB is not received on radio frames other than the 16 continuous radio frames within the 256 continuous radio frames, wherein a starting radio frame of the 16 continuous radio frames within the 256 continuous radio frames is determined based on a number of narrowband physical downlink shared channel, NPDSCH, repetitions and cell identifier related to the SIB1-NB, and wherein n is an integer between 0 and 9.
A secondary battery pack system for supplying power to an electronic device, comprising: a plurality of battery packs (100, 100') each having a controller (110, 110'); and the electronic device comprising a main body side connection circuit connected to the plurality of battery packs (100, 100'); wherein the main body side connection circuit comprises a main body side discharge control signal line, and wherein the main body side discharge control signal line and the controllers (110, 110') of the plurality of battery packs (100, 100') are connected to each other; characterized in that each battery pack (100, 100') comprises a pull-up resistor and a pull-down resistor, arranged such that a discharge control signal input from the main body side discharge control signal line is pulled up by the pull-up resistor and is distributed into two lines, and one of the two lines is connected to an output port of the controller (110, 110') via the pull-down resistor, wherein the controller (110, 110') is adapted to make the output port into a low state to thereby notify other battery packs of information indicating that discharging is being performed, and the other of the two lines is directly connected to an input port of the controller (110, 110') so that the voltage of the discharge control signal is read by the controller (110, 110') so as to determine whether discharging is permitted or not. a plurality of battery packs (100, 100') each having a controller (110, 110'); and the electronic device comprising a main body side connection circuit connected to the plurality of battery packs (100, 100'); each battery pack (100, 100') comprises a pull-up resistor and a pull-down resistor, arranged such that a discharge control signal input from the main body side discharge control signal line is pulled up by the pull-up resistor and is distributed into two lines, and one of the two lines is connected to an output port of the controller (110, 110') via the pull-down resistor, wherein the controller (110, 110') is adapted to make the output port into a low state to thereby notify other battery packs of information indicating that discharging is being performed, and the other of the two lines is directly connected to an input port of the controller (110, 110') so that the voltage of the discharge control signal is read by the controller (110, 110') so as to determine whether discharging is permitted or not.
A method to determine the weight percent of an "amorphous" fraction in an olefin-based polymer composition, comprising one or more olefin-based polymers; said method comprising the following steps: a) dissolving the olefin-based polymer composition in organic solvent to form a polymer solution; b) injecting at least a portion of the polymer solution onto a support material; c) cooling the support material at a rate greater than, or equal to, 0.2°C/min; d) increasing the temperature of the support material to elute the polymers of the olefin-based polymer composition; e) generating a chromatogram; f) determining the peak area of the first elution from its lower integration limit to its upper integration limit; g) calculating the "amorphous" fraction" based on the following Equation A below: wt % " amorphous " fraction = PA amorp / PA total × 100 wherein PA amorp = peak area of the first elution, and PA total = total peak area of the polymers of the olefin-based polymer composition, wherein the support material comprises one of the following: a) gold particles, b) gold coated particles, c) particles comprising gold, d) particles comprising a coating comprising gold, e) copper particles, f) copper coated particles, g) particles comprising copper, h) particles comprising a coating comprising copper, i) silver particles, j) silver coated particles, k) particles comprising silver, l) particles comprising a coating comprising silver, or m) a combination thereof. a) dissolving the olefin-based polymer composition in organic solvent to form a polymer solution; b) injecting at least a portion of the polymer solution onto a support material; c) cooling the support material at a rate greater than, or equal to, 0.2°C/min; d) increasing the temperature of the support material to elute the polymers of the olefin-based polymer composition; e) generating a chromatogram; f) determining the peak area of the first elution from its lower integration limit to its upper integration limit; g) calculating the "amorphous" fraction" based on the following Equation A below: wt % " amorphous " fraction = PA amorp / PA total × 100 wherein PA amorp = peak area of the first elution, and PA total = total peak area of the polymers of the olefin-based polymer composition, wherein the support material comprises one of the following: a) gold particles, b) gold coated particles, c) particles comprising gold, d) particles comprising a coating comprising gold, e) copper particles, f) copper coated particles, g) particles comprising copper, h) particles comprising a coating comprising copper, i) silver particles, j) silver coated particles, k) particles comprising silver, l) particles comprising a coating comprising silver, or m) a combination thereof.
A method comprising: executing an asynchronous replication process to perform asynchronous incremental transfers of data of a storage object from a first computing environment to a replicated storage object at a second computing environment until a cutover criteria is met; defining the cutover criteria as a timespan for performing asynchronous replication or as an amount of data remaining to be replicated; executing a synchronous replication process to synchronously replicate operations, targeting the storage object, to the replicated storage object based upon the cutover criteria being met, wherein the synchronous replication process executes an operation upon the storage object and a replica of the operation upon the replicated storage object before acknowledging the operation as complete; performing a cutover to direct operations from targeting the storage object to targeting the replicated storage object based upon the synchronous replication process reaching a steady state of synchronous replication for sub-objects of the storage object where operations are committed to both the storage object and the replicated storage object; and performing a timestamp matching process for the synchronous replication process to match timestamps of filesystem modification operations to metadata of the first computing environment and the second computing environment, wherein a timestamp is not modified when the current timestamp on an inode and pertaining to a storage object of the first computing environment is already higher than the current operation's timestamp. executing an asynchronous replication process to perform asynchronous incremental transfers of data of a storage object from a first computing environment to a replicated storage object at a second computing environment until a cutover criteria is met; defining the cutover criteria as a timespan for performing asynchronous replication or as an amount of data remaining to be replicated; executing a synchronous replication process to synchronously replicate operations, targeting the storage object, to the replicated storage object based upon the cutover criteria being met, wherein the synchronous replication process executes an operation upon the storage object and a replica of the operation upon the replicated storage object before acknowledging the operation as complete; performing a cutover to direct operations from targeting the storage object to targeting the replicated storage object based upon the synchronous replication process reaching a steady state of synchronous replication for sub-objects of the storage object where operations are committed to both the storage object and the replicated storage object; and performing a timestamp matching process for the synchronous replication process to match timestamps of filesystem modification operations to metadata of the first computing environment and the second computing environment, wherein a timestamp is not modified when the current timestamp on an inode and pertaining to a storage object of the first computing environment is already higher than the current operation's timestamp.
Power supply cable having at least two wires (12, 14), which are provided to carry power in at least one normal operating state, having at least one integrated common mode choke and having at least one further wire, characterized in that in the normal operating state the further wire is at least substantially power-free and, in at least one faulty operating state, is provided to carry power at least temporarily, and is arranged electrically separately from the common mode choke.
A speaker driver for rendering sound for reflection off of an upper surface of a listening environment, comprising: a driver cone; a cone dust cap affixed to a central portion of the driver cone; and a frame securing the cone for mounting within a speaker cabinet, wherein at least one of the driver cone, dust cap, and frame are configured to apply a height filter having a frequency response curve that is configured to at least partially remove directional cues from a speaker location, and at least partially insert the directional cues from a reflected speaker location, the frequency response curve based on a first frequency response of a filter modeling sound travelling directly from the reflected speaker location to the ears of a listener at a listening position, for said inserting of directional cues from the reflected speaker location, and a second filter frequency response of a filter modeling sound travelling directly from the speaker location to the ears of the listener at the listening position, for removing of directional cues for audio travelling along a path directly from the speaker location to the listener. a driver cone; a cone dust cap affixed to a central portion of the driver cone; and a frame securing the cone for mounting within a speaker cabinet, wherein at least one of the driver cone, dust cap, and frame are configured to apply a height filter having a frequency response curve that is configured to at least partially remove directional cues from a speaker location, and at least partially insert the directional cues from a reflected speaker location, the frequency response curve based on a first frequency response of a filter modeling sound travelling directly from the reflected speaker location to the ears of a listener at a listening position, for said inserting of directional cues from the reflected speaker location, and a second filter frequency response of a filter modeling sound travelling directly from the speaker location to the ears of the listener at the listening position, for removing of directional cues for audio travelling along a path directly from the speaker location to the listener. a first frequency response of a filter modeling sound travelling directly from the reflected speaker location to the ears of a listener at a listening position, for said inserting of directional cues from the reflected speaker location, and a second filter frequency response of a filter modeling sound travelling directly from the speaker location to the ears of the listener at the listening position, for removing of directional cues for audio travelling along a path directly from the speaker location to the listener.
Device-to-device, D2D, communication circuitry, for use in a device of a wireless communication network, the device being configured to transmit and receive device-to-device communications, the circuitry comprising: synchronization establishing circuitry configured to acquire radio resource synchronization and to establish a time-frequency resource grid for a D2D communication, the time-frequency resource grid having a plurality of resource units for allocation to a D2D connection; signal metric evaluation circuitry configured to evaluate at least one resource unit of a received signal using a signal metric when the time-frequency resource grid has been established; and radio resource selection circuitry configured to select a time resource of the time-frequency resource grid for allocation to the D2D communication, characterized in that the time resource being selected to have the fewest constituent resource units for which the signal metric is evaluated to lie between a lower threshold value and an upper threshold value. synchronization establishing circuitry configured to acquire radio resource synchronization and to establish a time-frequency resource grid for a D2D communication, the time-frequency resource grid having a plurality of resource units for allocation to a D2D connection; signal metric evaluation circuitry configured to evaluate at least one resource unit of a received signal using a signal metric when the time-frequency resource grid has been established; and radio resource selection circuitry configured to select a time resource of the time-frequency resource grid for allocation to the D2D communication, characterized in that the time resource being selected to have the fewest constituent resource units for which the signal metric is evaluated to lie between a lower threshold value and an upper threshold value.