mhurhangee/patent-ind-claim-en huggingface dataset:
A system for compensating for changes in printhead-to-printhead spacing in a printing system (200; 600) having multiple printheads mountable on a printhead support , the system comprising: a measurement system to determine a change in printhead-to-printhead spacing between different ones of mounted printheads and comprising a wave emitting device and a wave receiving device mounted on a printhead support ; and a controller configured to: determine a distance between two positions on the printhead support by measuring the time between a wave being emitted by the wave emitter and a wave being received by the wave receiver ; determine a change in printhead-to-printhead spacing based on the determined distance between two positions on the printhead support ; and determine compensation to be applied to the printing system (200; 600) to compensate for the determined change in printhead-to-printhead spacing. a measurement system to determine a change in printhead-to-printhead spacing between different ones of mounted printheads and comprising a wave emitting device and a wave receiving device mounted on a printhead support ; and a controller configured to: determine a distance between two positions on the printhead support by measuring the time between a wave being emitted by the wave emitter and a wave being received by the wave receiver ; determine a change in printhead-to-printhead spacing based on the determined distance between two positions on the printhead support ; and determine compensation to be applied to the printing system (200; 600) to compensate for the determined change in printhead-to-printhead spacing. determine a distance between two positions on the printhead support by measuring the time between a wave being emitted by the wave emitter and a wave being received by the wave receiver ; determine a change in printhead-to-printhead spacing based on the determined distance between two positions on the printhead support ; and determine compensation to be applied to the printing system (200; 600) to compensate for the determined change in printhead-to-printhead spacing.
A sensor assembly (1, 1', 1") for an In-vitro diagnostic (IVD) analyzer comprising - two opposite substrates with fluidic conduits formed in between for receiving a sample; - a plurality of electrochemical sensors arranged on the two opposite substrates facing the fluidic conduits for coming in contact with the sample and determining sample parameters, the plurality of electrochemical sensors being chosen from the groups of amperometric sensors, potentiometric sensors or combinations thereof; - wherein a potentiometric sensor comprises a potentiometric working electrode (PWE) and a potentiometric reference electrode (PRE) ; - wherein an amperometric sensor comprises an amperometric working electrode (AWE) and an amperometric counter reference electrode (ACRE) or an AWE and an amperometric reference electrode (ARE) and an amperometric counter electrode (ACE) ; - wherein the PRE(s) and/or the ACRE(s) and/or the ARE(s) and the ACE(s) are formed on the same one of the two substrates and wherein the PWE(s) and/or the AWE(s) are formed on the opposite one of the two substrates ; - characterized in that the potentiometric sensors and/or amperometric sensors have different susceptibility to deterioration through a system fluid, wherein the potentiometric sensors and/or the amperometric sensors with a higher susceptibility to deterioration are arranged along a first fluidic conduit and the potentiometric sensors and/or amperometric sensors with a lower susceptibility to deterioration are arranged along a fluidic conduit different from the first fluidic conduit . - two opposite substrates with fluidic conduits formed in between for receiving a sample; - a plurality of electrochemical sensors arranged on the two opposite substrates facing the fluidic conduits for coming in contact with the sample and determining sample parameters, the plurality of electrochemical sensors being chosen from the groups of amperometric sensors, potentiometric sensors or combinations thereof; - wherein a potentiometric sensor comprises a potentiometric working electrode (PWE) and a potentiometric reference electrode (PRE) ; - wherein an amperometric sensor comprises an amperometric working electrode (AWE) and an amperometric counter reference electrode (ACRE) or an AWE and an amperometric reference electrode (ARE) and an amperometric counter electrode (ACE) ; - wherein the PRE(s) and/or the ACRE(s) and/or the ARE(s) and the ACE(s) are formed on the same one of the two substrates and wherein the PWE(s) and/or the AWE(s) are formed on the opposite one of the two substrates ; - characterized in that the potentiometric sensors and/or amperometric sensors have different susceptibility to deterioration through a system fluid, wherein the potentiometric sensors and/or the amperometric sensors with a higher susceptibility to deterioration are arranged along a first fluidic conduit and the potentiometric sensors and/or amperometric sensors with a lower susceptibility to deterioration are arranged along a fluidic conduit different from the first fluidic conduit .
An electricity distribution system for distributing electric currents between an electrical distribution grid and a domestic distribution installation, wherein the system comprises: • a distributor arranged to distribute an electric current in the installation, the distributor being configured to have its upstream side connected to an electrical distribution grid and to at least one secondary electrical power supply source , the distributor being configured to have its downstream side connected to a plurality of electrical loads , • an electronic control device connected to measuring devices associated with the sources and the loads, these measuring devices making it possible to determine the electric current flowing in the installation and in particular the electric current carried in the electrical distribution grid, • the electronic control device being configured, based on the measured current, to manage power supply parameters of at least some of the electrical loads to reduce the electric current consumed by these electrical loads and/or to manage operating parameters of at least some of the secondary electrical power supply sources in order to reduce the electric current delivered by these electrical sources, the electricity distribution system being characterized in that the electronic control device is configured so as to comply with a first current threshold imposed by a protection element between the electrical installation and the electrical distribution grid and/or a second current threshold corresponding to a current limit imposed by the distributor so as to prevent the current delivered by the electrical sources through the distributor from exceeding the current limit imposed by the distributor . • a distributor arranged to distribute an electric current in the installation, the distributor being configured to have its upstream side connected to an electrical distribution grid and to at least one secondary electrical power supply source , the distributor being configured to have its downstream side connected to a plurality of electrical loads , • an electronic control device connected to measuring devices associated with the sources and the loads, these measuring devices making it possible to determine the electric current flowing in the installation and in particular the electric current carried in the electrical distribution grid, • the electronic control device being configured, based on the measured current, to manage power supply parameters of at least some of the electrical loads to reduce the electric current consumed by these electrical loads and/or to manage operating parameters of at least some of the secondary electrical power supply sources in order to reduce the electric current delivered by these electrical sources,
A display control method, which is applied to a terminal device that comprises a first screen and a second screen, the method comprising: receiving a first input of a user on the first screen; switching a first program interface of a first program from being displayed on the second screen to being displayed on the first screen in response to the first input; and displaying a first floating window on the second screen, the method being characterized by a first display content in the first floating window is updated synchronously with a second display content of the first program interface, and the second screen further comprises another program interface of one or more programs other than the first program. receiving a first input of a user on the first screen; switching a first program interface of a first program from being displayed on the second screen to being displayed on the first screen in response to the first input; and displaying a first floating window on the second screen, the method being characterized by a first display content in the first floating window is updated synchronously with a second display content of the first program interface, and the second screen further comprises another program interface of one or more programs other than the first program.
A communication link establishment method, comprising: establishing, by a routing protocol for low power and lossy networks, RPL, enabled device , a communication link with a non-RPL-enabled device ; establishing, by the RPL-enabled device , a network connection with an RPL-enabled network , wherein the RPL-enabled device receives a network prefix of the RPL-enabled network ; and providing, by the RPL-enabled device , a proxy communication link between the non-RPL-enabled device and the RPL-enabled network , wherein providing the proxy communication link comprises: executing a control protocol exchange between the RPL-enabled device and the non-RPL-enabled device , wherein the RPL-enabled device receives an interface identifier of the non-RPL-enabled device during the control protocol exchange; generating, by the RPL-enabled device , a globally unique address, GUA, associated with the non-RPL-enabled device , wherein the GUA comprises a concatenation of (i) the network prefix of the RPL-enabled network and (ii) the interface identifier of the non-RPL-enabled device ; and transmitting, by the RPL-enabled device , a proxy destination advertisement object to the RPL-enabled network , wherein the proxy destination advertisement object comprises the GUA. establishing, by a routing protocol for low power and lossy networks, RPL, enabled device , a communication link with a non-RPL-enabled device ; establishing, by the RPL-enabled device , a network connection with an RPL-enabled network , wherein the RPL-enabled device receives a network prefix of the RPL-enabled network ; and providing, by the RPL-enabled device , a proxy communication link between the non-RPL-enabled device and the RPL-enabled network , wherein providing the proxy communication link comprises: executing a control protocol exchange between the RPL-enabled device and the non-RPL-enabled device , wherein the RPL-enabled device receives an interface identifier of the non-RPL-enabled device during the control protocol exchange; generating, by the RPL-enabled device , a globally unique address, GUA, associated with the non-RPL-enabled device , wherein the GUA comprises a concatenation of (i) the network prefix of the RPL-enabled network and (ii) the interface identifier of the non-RPL-enabled device ; and transmitting, by the RPL-enabled device , a proxy destination advertisement object to the RPL-enabled network , wherein the proxy destination advertisement object comprises the GUA. executing a control protocol exchange between the RPL-enabled device and the non-RPL-enabled device , wherein the RPL-enabled device receives an interface identifier of the non-RPL-enabled device during the control protocol exchange; generating, by the RPL-enabled device , a globally unique address, GUA, associated with the non-RPL-enabled device , wherein the GUA comprises a concatenation of (i) the network prefix of the RPL-enabled network and (ii) the interface identifier of the non-RPL-enabled device ; and transmitting, by the RPL-enabled device , a proxy destination advertisement object to the RPL-enabled network , wherein the proxy destination advertisement object comprises the GUA.
A synthetic acid composition for use in downhole oil industry activities, said composition comprising: - urea and hydrogen chloride in a molar ratio ranging from 0.1:1.0 to 1.05:1.0 inclusively; - a metal iodide or iodate; - an alcohol or derivative thereof; and water and - optionally, a phosphonic acid derivative. - urea and hydrogen chloride in a molar ratio ranging from 0.1:1.0 to 1.05:1.0 inclusively; - a metal iodide or iodate; - an alcohol or derivative thereof; and water and - optionally, a phosphonic acid derivative.
A downhole arrangement , comprising a plurality of secondary elements , wherein a resonant feature of a characteristic frequency response of each secondary element is configurable to be selectively and/or irreversibly altered such that the plurality of secondary elements defines a series of frequency responses when an electromagnetic field is coupled from a primary element of a deployable tool to each secondary element of the plurality of secondary elements.
Telecommunications equipment comprising: first and second signal processing modules each comprising one or more line interface units , the first and second signal processing modules being arranged to be activated dependent on a failover state of the first and second signal processing modules; a plurality of external connectors ; a plurality of isolation transformers arranged in one or more signal paths between the external connectors and the first and second signal processing modules to provide galvanic isolation from signal lines from the plurality of external connectors, the equipment characterized in that a first equipment housing comprises at least the first and second signal processing modules and at least one further equipment housing comprises at least the external connectors and isolation transformers. first and second signal processing modules each comprising one or more line interface units , the first and second signal processing modules being arranged to be activated dependent on a failover state of the first and second signal processing modules; a plurality of external connectors ; a plurality of isolation transformers arranged in one or more signal paths between the external connectors and the first and second signal processing modules to provide galvanic isolation from signal lines from the plurality of external connectors, the equipment characterized in that a first equipment housing comprises at least the first and second signal processing modules and at least one further equipment housing comprises at least the external connectors and isolation transformers.
Tool system with a mounting shank with a longitudinal axis (L1) that can be inserted into a tool holder, a tool-side shank with a longitudinal axis (L2), on which tool-side shank a tool holder with a longitudinal axis (L3) is arranged, wherein the longitudinal axis (L2) of the tool-side shank and the longitudinal axis (L3) of the tool holder coincide or at least run parallel to one another, at least one insert seat formed on one end face of the tool holder for receiving an exchangeable cutting insert , a replaceable cutting insert rotationally fixed to the insert seat , wherein the cutting insert has an upper side formed as a rake face, a lower side formed as a contact surface, a circumferential side surface formed as a clearance surface and a cutting edge formed at a transition from the upper side to the circumferential side surface, and is arranged on the insert seat in such a way that the upper side of the cutting insert , which is designed as a rake face, extends transversely to the longitudinal axis (L3) of the tool holder , characterized in that the tool system comprises an electric actuator which is designed to change an orientation of the cutting insert by rotating the tool-side shank about its longitudinal axis (L2) and the tool system has a generator module for converting a mechanical drive power into electrical power for supplying the electric actuator . a mounting shank with a longitudinal axis (L1) that can be inserted into a tool holder, a tool-side shank with a longitudinal axis (L2), on which tool-side shank a tool holder with a longitudinal axis (L3) is arranged, wherein the longitudinal axis (L2) of the tool-side shank and the longitudinal axis (L3) of the tool holder coincide or at least run parallel to one another, at least one insert seat formed on one end face of the tool holder for receiving an exchangeable cutting insert , a replaceable cutting insert rotationally fixed to the insert seat , wherein the cutting insert has an upper side formed as a rake face, a lower side formed as a contact surface, a circumferential side surface formed as a clearance surface and a cutting edge formed at a transition from the upper side to the circumferential side surface, and is arranged on the insert seat in such a way that the upper side of the cutting insert , which is designed as a rake face, extends transversely to the longitudinal axis (L3) of the tool holder , characterized in that the tool system comprises an electric actuator which is designed to change an orientation of the cutting insert by rotating the tool-side shank about its longitudinal axis (L2) and the tool system has a generator module for converting a mechanical drive power into electrical power for supplying the electric actuator .
A circular stapler comprising: a cartridge assembly including a loading unit having a staple cartridge , a plurality of staples (S) received within the staple cartridge, and a pusher assembly movable relative to the staple cartridge; and an anvil assembly including an anvil member , and a first pull cable extending through the anvil member and engageable with the pusher assembly, wherein retraction of the first pull cable causes the pusher assembly to move relative to the staple cartridge to eject the plurality of staples from the staple cartridge, characterized in that the cartridge assembly includes a trocar member and the anvil assembly includes a second pull cable , the second pull cable being engageable with the trocar member to approximate the loading unit relative to the anvil member. a cartridge assembly including a loading unit having a staple cartridge , a plurality of staples (S) received within the staple cartridge, and a pusher assembly movable relative to the staple cartridge; and an anvil assembly including an anvil member , and a first pull cable extending through the anvil member and engageable with the pusher assembly, wherein retraction of the first pull cable causes the pusher assembly to move relative to the staple cartridge to eject the plurality of staples from the staple cartridge, characterized in that the cartridge assembly includes a trocar member and the anvil assembly includes a second pull cable , the second pull cable being engageable with the trocar member to approximate the loading unit relative to the anvil member.
A method for wireless communication performed by a station in power saving mode, the method comprising: receiving, via a first channel associated with a first access point , at least one first message including multiple sets of wake-up parameters, wherein each set of wake-up parameters is associated with one of a plurality of access points configured to communicate with the station, wherein each set of wake-up parameters includes at least one parameter that identifies a wake-up channel associated with one of the plurality of access points, wherein the plurality of access points include the first access point and at least a second access point; performing scanning on one or more wake-up channels, wherein a duration and a timing that the station stays on the one or more wake-up channels is negotiated with the first access point; and initiating communication, based on the scanning and via at least a second channel, with the second access point based on the at least one first message received via the first channel, wherein the second channel is indicated in a set of wake-up parameters for the second access point in the at least one first message. receiving, via a first channel associated with a first access point , at least one first message including multiple sets of wake-up parameters, wherein each set of wake-up parameters is associated with one of a plurality of access points configured to communicate with the station, wherein each set of wake-up parameters includes at least one parameter that identifies a wake-up channel associated with one of the plurality of access points, wherein the plurality of access points include the first access point and at least a second access point; performing scanning on one or more wake-up channels, wherein a duration and a timing that the station stays on the one or more wake-up channels is negotiated with the first access point; and initiating communication, based on the scanning and via at least a second channel, with the second access point based on the at least one first message received via the first channel, wherein the second channel is indicated in a set of wake-up parameters for the second access point in the at least one first message.
A method comprising: initiating a functional magnetic resonance imaging scan (an fMRI scan) of a patient with a functional magnetic resonance imaging system (an fMRI system 102) at an initiation time prior to a stimulation time when the patient is stimulated by an implanted stimulator , wherein the implanted stimulator is configured to stimulate the patient every period, and wherein a duration between the initiation time and the stimulation time is sufficient for the fMRI system to achieve a steady state, wherein the initiation time is based, at least in part, on an indication of a stimulation at an initial stimulation time received from the implanted stimulator; and initiating another fMRI scan of the patient one period after the initiation time. initiating a functional magnetic resonance imaging scan (an fMRI scan) of a patient with a functional magnetic resonance imaging system (an fMRI system 102) at an initiation time prior to a stimulation time when the patient is stimulated by an implanted stimulator , wherein the implanted stimulator is configured to stimulate the patient every period, and wherein a duration between the initiation time and the stimulation time is sufficient for the fMRI system to achieve a steady state, wherein the initiation time is based, at least in part, on an indication of a stimulation at an initial stimulation time received from the implanted stimulator; and initiating another fMRI scan of the patient one period after the initiation time.