mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid receiver comprising 1) a moving coil type receiver comprising a first magnetic flux path comprising a permanent magnet , a ring-shaped inner yoke or pole piece and a ring-shaped outer yoke or pole piece , wherein a first air gap for a voice coil is formed between the ring-shaped inner yoke or pole piece and the ring-shaped outer yoke or pole piece , and 2) a moving armature type receiver comprising a second magnetic flux path comprising the permanent magnet , a moving armature and a centre yoke or pole piece , wherein a second air gap is formed between the moving armature and the centre yoke or pole piece , wherein the first and second magnetic flux paths, at least partly, share a common magnetic circuit comprising the permanent magnet , and wherein a first diaphragm of the moving coil type receiver is suspended in a high compliance suspension member , and wherein a second diaphragm of the moving armature type receiver is suspended in a low compliance suspension member which rests on the ring-shaped inner yoke or pole piece . 1) a moving coil type receiver comprising a first magnetic flux path comprising a permanent magnet , a ring-shaped inner yoke or pole piece and a ring-shaped outer yoke or pole piece , wherein a first air gap for a voice coil is formed between the ring-shaped inner yoke or pole piece and the ring-shaped outer yoke or pole piece , and 2) a moving armature type receiver comprising a second magnetic flux path comprising the permanent magnet , a moving armature and a centre yoke or pole piece , wherein a second air gap is formed between the moving armature and the centre yoke or pole piece ,
Thermostat for communicating with a remote maintenance server , - the thermostat being configured for receiving and sending network data from and to the remote maintenance server , wherein the thermostat is configured to receive network data provided by a maintenance interface service for receiving and displaying network data from and to a maintenance person ; - the thermostat being further configured for receiving and sending remote controller data from and to a remote controller , wherein the thermostat is configured to receive remote controller data from a user through a controller user interface ; - the thermostat being further configured for receiving and sending appliance data from and to at least one appliance , characterized in that the thermostat is configured for generating a request for appliance data from the at least one appliance and the thermostat is configured for receiving appliance data in response to the request for appliance data , wherein the thermostat is configured for storing the appliance data over time and for predicting an appliance error by comparing the stored appliance data over time with reference appliance data . - the thermostat being configured for receiving and sending network data from and to the remote maintenance server , wherein the thermostat is configured to receive network data provided by a maintenance interface service for receiving and displaying network data from and to a maintenance person ; - the thermostat being further configured for receiving and sending remote controller data from and to a remote controller , wherein the thermostat is configured to receive remote controller data from a user through a controller user interface ; - the thermostat being further configured for receiving and sending appliance data from and to at least one appliance ,
Control device (DC) for a vehicle (V) comprising i) a brake pedal (PF) coupled to a braking circuit (CF) in which a current pressure prevails, ii) an accelerator pedal (PA), iii) at least one energy storage means (MS1) having a current state of charge, and iv) a heat engine (MT) and a non-thermal drive machine (MM) respectively providing torques for at least a train (T1) by consuming respectively fuel and energy stored in said energy storage means (MS1), characterized in that it comprises control means (MC) triggering, when said vehicle (V) rolls with said brake pedal (PF) and accelerator pedal (PA) not depressed, an anticipated operation of said heat engine (MT) to provide at a predefined moment a predefined torque to ensure a so-called crawling function when said pressure in progress becomes below a predefined pressure threshold, a function of said non-thermal prime mover (MM) by a predefined time interval after said current pressure has become equal to a predefined value, strictly less than said predefined pressure threshold, to provide said predefined moment at said predefined torque for performing said crawling function, depending on whether said current state of charge is lower or higher than a predefined state threshold.
A method for detecting the presence or absence of a polynucleotide target in a sample, comprising: a. providing a coated solid support comprising a silicon substrate, a cationic layer, and a plurality of cleavable target-specific probes attached to the coated solid support; b. applying to the coated solid support the sample; c. chemically cleaving hybridized probes and unhybridized probes from the coated solid support and eluting the cleaved probes to create an eluent; d. applying the eluent and a reaction medium to a second coated solid support e. subjecting the eluent to an isothermal helicase-dependent amplification process capable of amplifying a polynucleotide target, and concurrently hybridizing amplified polynucleotide targets to the probes on the second coated solid support and f. detecting the presence or absence of polynucleotide targets bound to the probes. a. providing a coated solid support comprising a silicon substrate, a cationic layer, and a plurality of cleavable target-specific probes attached to the coated solid support; b. applying to the coated solid support the sample; c. chemically cleaving hybridized probes and unhybridized probes from the coated solid support and eluting the cleaved probes to create an eluent; d. applying the eluent and a reaction medium to a second coated solid support e. subjecting the eluent to an isothermal helicase-dependent amplification process capable of amplifying a polynucleotide target, and concurrently hybridizing amplified polynucleotide targets to the probes on the second coated solid support and f. detecting the presence or absence of polynucleotide targets bound to the probes.
A power control module comprising: a transistor having a first side and a second side opposite from the first; a heat sink plate ; a printed wiring board "PWB" spaced apart from the first side of the transistor , wherein the PWB is electrically connected to the transistor and includes an access hole arranged and configured to allow for pushing the transistor towards the sink plate; and the power control module characterized in that the heat sink plate is soldered to a second side of the transistor for heat dissipation from the transistor , and in that the heat sink plate includes a respective access hole arranged and configured to allow for a soldering tip to access through the heat sink plate and solder the transistor during assembly. a transistor having a first side and a second side opposite from the first; a heat sink plate ; a printed wiring board "PWB" spaced apart from the first side of the transistor , wherein the PWB is electrically connected to the transistor and includes an access hole arranged and configured to allow for pushing the transistor towards the sink plate; and the power control module characterized in that the heat sink plate is soldered to a second side of the transistor for heat dissipation from the transistor , and in that the heat sink plate includes a respective access hole arranged and configured to allow for a soldering tip to access through the heat sink plate and solder the transistor during assembly.
A method for manufacturing a terminal forming any of a positive electrode and a negative electrode of a secondary battery , the method comprising the steps of: preparing a first member and a second member each made of a metal and forming the terminal , wherein the first member and the second member are formed of mutually different metals, with the first member being formed in a sheet shape and having at one surface thereof a concave part for allowing a part of the second member to be fitted therein, and with the second member having a flange part to be accommodated in the concave part ; and fixing the first member and the second member to each other by ultrasonic pressure contact, with the ultrasonic pressure contact being performed by applying an ultrasonic wave vibration while applying a pressure in a direction of stacking of the first member and the second member in a state where the flange part of the second member is arranged in the concave part of the first member , thereby extending the flange part and bringing a part of the extended flange part into pressure contact with an inner wall surface of the concave part , thereby forming a crimped structure of the first and second member . preparing a first member and a second member each made of a metal and forming the terminal , wherein the first member and the second member are formed of mutually different metals, with the first member being formed in a sheet shape and having at one surface thereof a concave part for allowing a part of the second member to be fitted therein, and with the second member having a flange part to be accommodated in the concave part ; and fixing the first member and the second member to each other by ultrasonic pressure contact, with the ultrasonic pressure contact being performed by applying an ultrasonic wave vibration while applying a pressure in a direction of stacking of the first member and the second member in a state where the flange part of the second member is arranged in the concave part of the first member , thereby extending the flange part and bringing a part of the extended flange part into pressure contact with an inner wall surface of the concave part , thereby forming a crimped structure of the first and second member .
A method of scaling amperometric data obtained during an electrochemical analysis of an analyte of interest to compensate for hematocrit and/or temperature, the method comprising the steps of: applying to a body fluid sample a test sequence comprising an AC block of low-amplitude signals and at least one DC block, wherein the body fluid sample comprises the analyte of interest; measuring AC and DC current responses to an electro-active species indicative of the analyte of interest; and scaling the amperometric data to obtain a compensated current that minimizes an influence of Hct and/or temperature on the analysis of the analyte of interest, wherein the scaling is performed in accordance with the following equation: scaled DC = DC / Y OP , wherein scaled DC is the scaled DC current response, DC is the unscaled DC current response, Y is the admittance and OP is the optimized power, wherein the admittance corresponds to a 20 kHz applied potential and the optimized power has been iterated between 0 to 10 through a Pearson correlation calculated between the scaled DC current response and one of the two variables of interest, wherein the variables of interest are hematocrit and temperature; wherein the method further comprises a step of estimating the analyte concentration based upon the scaled amperometric data, wherein the analyte is glucose. applying to a body fluid sample a test sequence comprising an AC block of low-amplitude signals and at least one DC block, wherein the body fluid sample comprises the analyte of interest; measuring AC and DC current responses to an electro-active species indicative of the analyte of interest; and scaling the amperometric data to obtain a compensated current that minimizes an influence of Hct and/or temperature on the analysis of the analyte of interest, wherein the scaling is performed in accordance with the following equation: scaled DC = DC / Y OP , wherein scaled DC is the scaled DC current response, DC is the unscaled DC current response, Y is the admittance and OP is the optimized power, wherein the admittance corresponds to a 20 kHz applied potential and the optimized power has been iterated between 0 to 10 through a Pearson correlation calculated between the scaled DC current response and one of the two variables of interest, wherein the variables of interest are hematocrit and temperature; wherein the method further comprises a step of estimating the analyte concentration based upon the scaled amperometric data, wherein the analyte is glucose. wherein scaled DC is the scaled DC current response, DC is the unscaled DC current response, Y is the admittance and OP is the optimized power, wherein the admittance corresponds to a 20 kHz applied potential and the optimized power has been iterated between 0 to 10 through a Pearson correlation calculated between the scaled DC current response and one of the two variables of interest, wherein the variables of interest are hematocrit and temperature; wherein the method further comprises a step of estimating the analyte concentration based upon the scaled amperometric data, wherein the analyte is glucose.
Footwear sole comprising: - a first layer having a leaning surface configured to face, in use, a walking surface; - a second layer , coupled to said first layer ; - a plurality of seats each associated with the second layer ; - a plurality of actuated members each mounted in a respective seat , wherein each actuated member is movable between a first position, or retracted position, wherein it is housed inside a corresponding seat and a second position, or extended position, wherein the actuated member projects at least partially from a respective seat towards said first layer ; - an actuation member configured to move the actuated members between the retracted position and the extended position and vice versa, wherein the plurality of actuated members in the respective first position, or retracted position, are apt to determine a first configuration of the first layer , and wherein the plurality of actuated members in the respective second position, or extended position, are apt to determine a second configuration of the first layer wherein in said second configuration of the first layer the leaning surface has or forms a plurality of bumps or protrusions with respect to the first configuration of the first layer wherein each bump or protrusion of said plurality of bumps or protrusions is arranged at an actuated member ; wherein said second layer defines with said first layer an expandable chamber or expansion chamber. - a first layer having a leaning surface configured to face, in use, a walking surface; - a second layer , coupled to said first layer ; - a plurality of seats each associated with the second layer ; - a plurality of actuated members each mounted in a respective seat , wherein each actuated member is movable between a first position, or retracted position, wherein it is housed inside a corresponding seat and a second position, or extended position, wherein the actuated member projects at least partially from a respective seat towards said first layer ; - an actuation member configured to move the actuated members between the retracted position and the extended position and vice versa, wherein the plurality of actuated members in the respective first position, or retracted position, are apt to determine a first configuration of the first layer , and wherein the plurality of actuated members in the respective second position, or extended position, are apt to determine a second configuration of the first layer wherein in said second configuration of the first layer the leaning surface has or forms a plurality of bumps or protrusions with respect to the first configuration of the first layer wherein each bump or protrusion of said plurality of bumps or protrusions is arranged at an actuated member ; wherein said second layer defines with said first layer an expandable chamber or expansion chamber.
A heating plate including a pair of glass plates and a conductive pattern disposed between the pair of glass plates , the conductive pattern including thin conductive wires arranged in a pattern, the heating plate comprising: a joint layer disposed between at least one of the pair of glass plates and the conductive pattern , the joint layer being directly in contact with the glass plate and the thin conductive wires so as to join the conductive pattern to the glass plate ; wherein the thin conductive wire is formed such that a line width thereof narrows as a certain point in the thin conductive wire comes close to the glass plates located on the side of the joint layer in contact with the thin conductive wires , and characterized in that the thin conductive wire is formed to have a trapezoidal sectional shape in a direction perpendicular to an extension direction of the thin conductive wire . a joint layer disposed between at least one of the pair of glass plates and the conductive pattern , the joint layer being directly in contact with the glass plate and the thin conductive wires so as to join the conductive pattern to the glass plate ; wherein the thin conductive wire is formed such that a line width thereof narrows as a certain point in the thin conductive wire comes close to the glass plates located on the side of the joint layer in contact with the thin conductive wires , and characterized in that the thin conductive wire is formed to have a trapezoidal sectional shape in a direction perpendicular to an extension direction of the thin conductive wire .
A method, comprising: receiving, by a device , goal information associated with one or more performance goals associated with a radio access network , RAN; receiving, by the device, performance information for mobile devices associated with the RAN ; determining, by the device and based on the goal information and the performance information, that at least one performance goal, of the one or more performance goals, is not being achieved within the RAN , wherein the at least one performance goal identifies a threshold quantity of handovers associated with a particular area, the at least one performance goal not being achieved based on the performance information identifying a quantity of handovers that is greater than the threshold quantity of handovers; wherein the one or more performance goals include a plurality of performance goals; and where the goal information includes priority information associated with the plurality of performance goals, the priority information identifying priorities of the plurality of performance goals relative to each other;generating, by the device , a small cell plan for improving performance within the RAN toward achievement of the at least one performance goal based on the priority information, the small cell plan to identify a set of locations at which a set of small cells are to be activated, deactivated, or deployed; and outputting, by the device , information associated with the small cell plan. receiving, by a device , goal information associated with one or more performance goals associated with a radio access network , RAN; receiving, by the device, performance information for mobile devices associated with the RAN ; determining, by the device and based on the goal information and the performance information, that at least one performance goal, of the one or more performance goals, is not being achieved within the RAN , wherein the at least one performance goal identifies a threshold quantity of handovers associated with a particular area, the at least one performance goal not being achieved based on the performance information identifying a quantity of handovers that is greater than the threshold quantity of handovers; wherein the one or more performance goals include a plurality of performance goals; and where the goal information includes priority information associated with the plurality of performance goals, the priority information identifying priorities of the plurality of performance goals relative to each other;generating, by the device , a small cell plan for improving performance within the RAN toward achievement of the at least one performance goal based on the priority information, the small cell plan to identify a set of locations at which a set of small cells are to be activated, deactivated, or deployed; and outputting, by the device , information associated with the small cell plan.
A cooking appliance comprising a cavity and means for implementing a cycle of cleaning by pyrolysis in which the temperature of the cavity increases from an initial temperature (T i ) to a pyrolysis temperature (T p ), the temperature rise over time being implemented according to a first temperature curve ( temp1 ) , representing the change in temperature over time, said cooking appliance being characterized in that said means for implementing a pyrolysis cycle comprise means for checking the prior implementation of a cooking cycle comprising means for determining the period of time elapsed between the end of a cooking cycle and the start of the cycle of cleaning by pyrolysis and means for comparing said determined period of time with a predetermined period of time, said means for implementing a pyrolysis cycle further comprising comparison means for comparing said initial temperature (T i ) with a predetermined temperature, and being configured to implement said temperature rise over time according to said temperature curve ( temp1 ) when the initial temperature (T i ) is less than said predetermined temperature and according to a second temperature curve ( temp2 ) representing the temperature change over time when a cooking cycle has been implemented in advance and said initial temperature (T i ) is greater than or substantially equal to said predetermined temperature, said second temperature curve ( temp2 ) comprising at least one substantially linear portion ( temp2 ) corresponding to a range of temperatures (I T ), said portion ( temp2 ) having a slope (α2) of greater value than the value of the slope (α1) of a portion ( temp1 ) of said first temperature curve ( temp1 ) corresponding to said range of temperatures (I T ).
An apparatus comprising circuitry and logic configured to cause a wireless station to: transmit a short feedback trigger frame comprising a first allocation of opportunities for short feedback from associated stations, and a second allocation of opportunities for short feedback from unassociated stations; process a plurality of short feedbacks from a plurality of stations according to the first and second allocations, the plurality of short feedbacks to indicate uplink resource requests; based on the plurality of short feedbacks, transmit a Multi-User, MU, trigger frame to allocate uplink resources to the plurality of stations; and process a plurality of uplink transmissions from the plurality of stations according to the uplink resources . transmit a short feedback trigger frame comprising a first allocation of opportunities for short feedback from associated stations, and a second allocation of opportunities for short feedback from unassociated stations; process a plurality of short feedbacks from a plurality of stations according to the first and second allocations, the plurality of short feedbacks to indicate uplink resource requests; based on the plurality of short feedbacks, transmit a Multi-User, MU, trigger frame to allocate uplink resources to the plurality of stations; and process a plurality of uplink transmissions from the plurality of stations according to the uplink resources .
A process for preparing lofexidine, the compound of formula , or a pharmaceutically acceptable acid addition salt thereof, which comprises the step of: a) converting a compound of formula into lofexidine in a solvent in the presence of an aluminium alkoxide of formula Al(OR 2 ) 3 . wherein R 2 is an alkyl having 1 to 11 carbon atoms, and b) optionally converting the lofexidine into a pharmaceutically acceptable salt thereof. a) converting a compound of formula into lofexidine in a solvent in the presence of an aluminium alkoxide of formula Al(OR 2 ) 3 . wherein R 2 is an alkyl having 1 to 11 carbon atoms, and b) optionally converting the lofexidine into a pharmaceutically acceptable salt thereof.