mhurhangee/ep-ind-claims huggingface dataset:
A filter device for preventing the overfill of filter elements (2,2') with filter cake in a filter housing (1,1'), wherein sensors (8,8') for measuring force are provided within the filter housing (1,1') characterized in that the sensors (8,8') are arranged over the filter elements (2,2') at the closed end of the filtrate colletion tubes (3,3').
An apparatus for implementing clock holdover in a communication system, the apparatus configured to receive a first input clock signal from an external source clock, to receive a second input clock signal from a local oscillator and to output an output clock signal, the apparatus comprising: a first phase-locked circuit for taking the first input clock signal and a first output clock signal as input, and outputting an intermediate clock signal, wherein the first phase-locked circuit includes a first digital oscillator, and the first digital oscillator is configured to take the first output clock signal as a working clock to generate the intermediate clock signal; and a second phase-locked circuit for taking the intermediate clock signal and the second input clock signal as input, and outputting a second output clock signal; wherein the first output clock signal is output by the second phase-locked circuit and fed back to the first phase-locked circuit. a first phase-locked circuit for taking the first input clock signal and a first output clock signal as input, and outputting an intermediate clock signal, wherein the first phase-locked circuit includes a first digital oscillator, and the first digital oscillator is configured to take the first output clock signal as a working clock to generate the intermediate clock signal; and a second phase-locked circuit for taking the intermediate clock signal and the second input clock signal as input, and outputting a second output clock signal; wherein the first output clock signal is output by the second phase-locked circuit and fed back to the first phase-locked circuit.
A method of treating an electro-chemical gas responsive cell having a working electrode, a counter electrode, a reference electrode, and an electrolyte, the method comprising: providing the electrochemical cell, wherein the cell is an electrochemical oxygen sensing cell, and wherein the electro-chemical cell has become degraded by use over time by an interferent gas and wherein the working electrode is biased to a first value relative to the reference electrode, wherein the first bias value is -600 mV; switching the working electrode to a second, different bias value for a time period, wherein the second bias value is zero volts; removing the interferent gas dissolved in the electrolyte around the reference electrode in response to switching the working electrode to the second, different bias value; returning the working electrode to its first bias value; and improving a response parameter of the cell to a selected gas in response to returning the working electrode to its first bias value. providing the electrochemical cell, wherein the cell is an electrochemical oxygen sensing cell, and wherein the electro-chemical cell has become degraded by use over time by an interferent gas and wherein the working electrode is biased to a first value relative to the reference electrode, wherein the first bias value is -600 mV; switching the working electrode to a second, different bias value for a time period, wherein the second bias value is zero volts; removing the interferent gas dissolved in the electrolyte around the reference electrode in response to switching the working electrode to the second, different bias value; returning the working electrode to its first bias value; and improving a response parameter of the cell to a selected gas in response to returning the working electrode to its first bias value.
A method of processing electronic substrates comprising: loading a first electronic substrate onto an upper track of a first stencil printer; raising the upper track of the first stencil printer relative to a lower track of the first stencil printer, the lower track of the first stencil printer disposed beneath the upper track of the first stencil printer; bringing the lower track of the first stencil printer into a position in which the lower track of the first stencil printer is aligned with an upper track of a second stencil printer; loading a second electronic substrate on to the lower track of the first stencil printer; and transporting the second electronic substrate to the upper track of the second stencil printer. loading a first electronic substrate onto an upper track of a first stencil printer; raising the upper track of the first stencil printer relative to a lower track of the first stencil printer, the lower track of the first stencil printer disposed beneath the upper track of the first stencil printer; bringing the lower track of the first stencil printer into a position in which the lower track of the first stencil printer is aligned with an upper track of a second stencil printer; loading a second electronic substrate on to the lower track of the first stencil printer; and transporting the second electronic substrate to the upper track of the second stencil printer.
A driving assist device (10, 20, 30) that is configured to recognize objects in the vicinity of a vehicle, and is configured to assist a driver in driving the vehicle, the apparatus comprising: an object detecting unit that is configured to detect the position of objects in the vicinity of the vehicle wherein the objects are one from the group comprising two dimensional and three dimensional objects and wherein the object detecting unit is not able to distinguish between the two dimensional and the three dimensional objects; a three dimensional object detecting unit that is configured to detect the position of three dimensional objects in the vicinity of the vehicle; a first storage unit that is configured to store the position of the two dimensional and three dimensional objects detected by the object detecting unit; a second storage unit that is configured to store the position of the three dimensional objects detected by the three dimensional object detecting unit; and an object recognition unit (18, 23, 33) that is configured to recognize an object at a predetermined detection position as a non-obstacle when the first storage unit stores the position of the object, and the second storage unit does not store the position of the object at the predetermined position in which detection is performed by both of the object detecting unit and the three dimensional object detecting unit. an object detecting unit that is configured to detect the position of objects in the vicinity of the vehicle wherein the objects are one from the group comprising two dimensional and three dimensional objects and wherein the object detecting unit is not able to distinguish between the two dimensional and the three dimensional objects; a three dimensional object detecting unit that is configured to detect the position of three dimensional objects in the vicinity of the vehicle; a first storage unit that is configured to store the position of the two dimensional and three dimensional objects detected by the object detecting unit; a second storage unit that is configured to store the position of the three dimensional objects detected by the three dimensional object detecting unit; and an object recognition unit (18, 23, 33) that is configured to recognize an object at a predetermined detection position as a non-obstacle when the first storage unit stores the position of the object, and the second storage unit does not store the position of the object at the predetermined position in which detection is performed by both of the object detecting unit and the three dimensional object detecting unit.
Travelling lifting and swivelling device ( for setting up and stripping ceiling formwork elements in the field of construction, comprising at least one swivelling unit and at least one lifting unit separate from the latter, wherein the lifting unit comprises a movable support which is vertically adjustable relative to a base of the lifting and swivelling device, and wherein the swivelling unit is connected via a hinge mechanism to the movable support, characterised by the fact that the swivelling unit and the lifting unit can be operated from a common operating area which is located on the base, wherein in the operating area a first winch is provided for the vertical presentation of a movable support of the lifting unit, for example by means of a cable, relative to a base of the lifting and swivelling device and a second winch is provided for operating the pivot unit.
A method for controlling the light emitted by a light source, comprising: - setting the light to an active level in response to a triggering event indicating presence of a user, - starting a timer adapted to run until expiry to measure a period of time until the light is to be set to a passive level that is lower than said active level, - if the timer expires without any new triggering event having been observed, setting the light to said passive level, - responding to a reception of an external control signal while the timer is running, which external control signal indicates presence of a user elsewhere, by changing the time remaining until expiry of said timer, characterized in that the method comprises - after having received a plurality of external control signals from one or more presence sensors arranged elsewhere than within the illumination area of said light source, which external control signals indicate presence of users elsewhere, associating different sources of external control signals with specific amounts of time by which the time remaining until expiry of said timer will be changed in accordance with a number of rules, and - next time when an external control signal is received while the timer is running, changing the time remaining until expiry of said timer by an amount associated with the source from which the external control signal was received. - setting the light to an active level in response to a triggering event indicating presence of a user, - starting a timer adapted to run until expiry to measure a period of time until the light is to be set to a passive level that is lower than said active level, - if the timer expires without any new triggering event having been observed, setting the light to said passive level, - responding to a reception of an external control signal while the timer is running, which external control signal indicates presence of a user elsewhere, by changing the time remaining until expiry of said timer, - after having received a plurality of external control signals from one or more presence sensors arranged elsewhere than within the illumination area of said light source, which external control signals indicate presence of users elsewhere, associating different sources of external control signals with specific amounts of time by which the time remaining until expiry of said timer will be changed in accordance with a number of rules, and - next time when an external control signal is received while the timer is running, changing the time remaining until expiry of said timer by an amount associated with the source from which the external control signal was received.
Amplifier circuit for actuating a light diode, the amplifier circuit having an entry stage for actuating a driver circuit, said drive circuit and a DC current supply which actuates the light diode, characterised in that - the driver circuit has a first and a second transistor which are complementary to one another, their emitters being electrically connected to one another, a first current source being electrically connected between a base and a collector of the first transistor and a second current source being electrically connected between a base and a collector of the second transistor, and a voltage control circuit being electrically connected between both the bases of the transistors and setting a voltage between both the bases of the transistors as a function of temperatures of the transistors, wherein - the DC current supply has a coupling capacitor (Cds) electrically connected to the emitters of both the transistors with a first electrical terminal, the second electrical terminal of said coupling capacitor (Cds) being electrically connected to ground via an electric coil (Ls) and a third current source, the light diode being electrically connected in the conductance direction electrically parallel to the coil (Ls) and to the third current source providing a closed-circuit current for the light diode - the driver circuit has a first and a second transistor which are complementary to one another, their emitters being electrically connected to one another, a first current source being electrically connected between a base and a collector of the first transistor and a second current source being electrically connected between a base and a collector of the second transistor, and a voltage control circuit being electrically connected between both the bases of the transistors and setting a voltage between both the bases of the transistors as a function of temperatures of the transistors, wherein - the DC current supply has a coupling capacitor (Cds) electrically connected to the emitters of both the transistors with a first electrical terminal, the second electrical terminal of said coupling capacitor (Cds) being electrically connected to ground via an electric coil (Ls) and a third current source, the light diode being electrically connected in the conductance direction electrically parallel to the coil (Ls) and to the third current source providing a closed-circuit current for the light diode
A computer-implemented method in a distributed storage environment utilizing a processor and memory for synchronously geo-replicating data in the distributed storage environment, the method comprising: receiving data at a primary data store from a client; writing the data to a log of the primary data store, wherein the data at the primary data store is not accessible to the client until it is committed to one or more logs and/or a memory table of the primary data store; annotating the data written to the log with a record, such as a unique identifier, which facilitates replay of the data at a secondary data store; receiving an acknowledgment from the secondary data store that the data was written to a log at the secondary data store; upon receiving the acknowledgment from the secondary data store, committing the data to the primary data store; communicating an acknowledgement of committal of the data at the primary data store to the client; and communicating a commit ID from the primary data store to the secondary data store, wherein the commit ID is an identification utilized to ensure sequential committal of data during replication. receiving data at a primary data store from a client; writing the data to a log of the primary data store, wherein the data at the primary data store is not accessible to the client until it is committed to one or more logs and/or a memory table of the primary data store; annotating the data written to the log with a record, such as a unique identifier, which facilitates replay of the data at a secondary data store; receiving an acknowledgment from the secondary data store that the data was written to a log at the secondary data store; upon receiving the acknowledgment from the secondary data store, committing the data to the primary data store; communicating an acknowledgement of committal of the data at the primary data store to the client; and communicating a commit ID from the primary data store to the secondary data store, wherein the commit ID is an identification utilized to ensure sequential committal of data during replication.
A method of determining or comparing potency of a test interferon relative to Recombinant Super-Compound Interferon (rSIFN-co), or establishing equivalence between a test interferon and rSIFN-co, comprising: providing the test interferon and rSIFN-co; and determining down-regulation of expression of LRP6 and FZD6 in HT-29 cells by the test interferon and rSIFN-co, in vitro, under same specified conditions, respectively; whereby the presence of down-regulation of expression of LRP6 and FZD6 in HT-29 cells in a statistically significant manner by the test interferon, signifies that the test interferon and rSIFN-co have the same potency, or that the test interferon and rSIFN-co are equivalent. providing the test interferon and rSIFN-co; and determining down-regulation of expression of LRP6 and FZD6 in HT-29 cells by the test interferon and rSIFN-co, in vitro, under same specified conditions, respectively;
Method to produce a polypeptide comprising a human IgG1 Fc region that is mutated as compared to a parent polypeptide and having functional activity mediated by the Fc region that is selected from among antibody-dependent cell cytotoxicity (ADCC) and complement-dependent cytotoxicity, that is increased compared with that of the parent polypeptide, the parent polypeptide comprising a parent Fc region chosen from sequences SEQ ID NO:1, 5, 6 and 10, said method comprising a step to introduce a combination of mutations into the parent Fc region selected from among: 248E/378V, 396L/421T/378V, 316D/326E/378V, 298N/378V, 336T/378V, 334N/352S/397M/378V, 286I/378V/423Y, 231V/378V, 286Y/352S/378V, 290E/366A/378V, 308A/334R/378V/447N, 248E/334R/378V, 298N/336T/378V, 248E/308A/334R/378V/447N, 248E/316D/326E/378V, 248E/298N/378V, 248E/334N/352S/397M/378V, 248E/231V/378V, 248E/336T/378V, 248E/396L/421T/378V, 316D/326E/333G/378V, 298N/333G/378V, 333G/334N/352S/397M/378V, 248E/333G/378V, 231V/333G/378V, 333G/336T/378V, 333G/396L/421T/378V, 286I/333G/378V/423Y, 316D/326E/378V/423Y, 333G/298N/378V/423Y, 334N/352S/397M/378V/423Y, 248E/378V/423Y, 231V/378V/423Y, 336T/378V/423Y, or 396L/421T/378V/423Y, the numbering being that of the EU Index. 248E/378V, 396L/421T/378V, 316D/326E/378V, 298N/378V, 336T/378V, 334N/352S/397M/378V, 286I/378V/423Y, 231V/378V, 286Y/352S/378V, 290E/366A/378V, 308A/334R/378V/447N, 248E/334R/378V, 298N/336T/378V, 248E/308A/334R/378V/447N, 248E/316D/326E/378V, 248E/298N/378V, 248E/334N/352S/397M/378V, 248E/231V/378V, 248E/336T/378V, 248E/396L/421T/378V, 316D/326E/333G/378V, 298N/333G/378V, 333G/334N/352S/397M/378V, 248E/333G/378V, 231V/333G/378V, 333G/336T/378V, 333G/396L/421T/378V, 286I/333G/378V/423Y, 316D/326E/378V/423Y, 333G/298N/378V/423Y, 334N/352S/397M/378V/423Y, 248E/378V/423Y, 231V/378V/423Y, 336T/378V/423Y, or 396L/421T/378V/423Y, the numbering being that of the EU Index.
Method for controlling an electric machine, comprising the following steps: detecting at least one manipulated or measurement variable; ascertaining components of a predetermined frequency in the detected manipulated or measurement variable; calculating a controlled variable using the ascertained components of the predetermined frequency of the detected manipulated or measurement variable and a predetermined control matrix; and driving the electric machine using the calculated controlled variable, characterized in that on the basis of a gradient-based optimization, the coefficients of the manipulated or measurement variables for the electric drive system are adapted iteratively such that a quality functional is minimized, and the quality functional is a function of the harmonics of the manipulated or measurement variables of the electric machine taking account of a steady-state transfer response in the electric machine. detecting at least one manipulated or measurement variable; ascertaining components of a predetermined frequency in the detected manipulated or measurement variable; calculating a controlled variable using the ascertained components of the predetermined frequency of the detected manipulated or measurement variable and a predetermined control matrix; and driving the electric machine using the calculated controlled variable, characterized in that on the basis of a gradient-based optimization, the coefficients of the manipulated or measurement variables for the electric drive system are adapted iteratively such that a quality functional is minimized, and the quality functional is a function of the harmonics of the manipulated or measurement variables of the electric machine taking account of a steady-state transfer response in the electric machine.
A method for co-producing a carboxylic acid and a halogenated compound, the method comprising the steps of: contacting a first region of an electrochemical cell having a cathode with a catholyte comprising carbon dioxide; contacting a second region of the electrochemical cell having an anode with an anolyte comprising an MX where M is a cation including at least one of Na, K, Cs, Mg, Ca, hydrogen ions, tetraalkyl ammonium ions, such as tetrabutylammonium, tetraethylammonium, choline, and tetraalkylphosphonium ions such as tetrabutylphosphonium, tetraethylphosphonium, and in general, R 1 R 2 R 3 R 4 N or R 1 R 2 R 3 R 4 P where R 1 to R 4 are independently alkyl, cycloalkyl, branched alkyl, and aryl, and X is selected from a group consisting of F, Cl, Br, I and mixtures thereof; applying an electrical potential between the anode and the cathode sufficient to produce M-carboxylate recoverable from the first region of the electrochemical cell and a halogen recoverable from the second region of the electrochemical cell; reacting the halogen from the second region of the electrochemical cell with at least one of an alkane, an alkene, or an aromatic compound to produce the halogenated compound and HX, the HX being recycled back to an acidification chamber; reacting the M-carboxylate with the HX via the acidification chamber to produce the carboxylic acid and MX, the MX being recycled to an input of the second region of the electrochemical cell. contacting a first region of an electrochemical cell having a cathode with a catholyte comprising carbon dioxide; contacting a second region of the electrochemical cell having an anode with an anolyte comprising an MX where M is a cation including at least one of Na, K, Cs, Mg, Ca, hydrogen ions, tetraalkyl ammonium ions, such as tetrabutylammonium, tetraethylammonium, choline, and tetraalkylphosphonium ions such as tetrabutylphosphonium, tetraethylphosphonium, and in general, R 1 R 2 R 3 R 4 N or R 1 R 2 R 3 R 4 P where R 1 to R 4 are independently alkyl, cycloalkyl, branched alkyl, and aryl, and X is selected from a group consisting of F, Cl, Br, I and mixtures thereof; applying an electrical potential between the anode and the cathode sufficient to produce M-carboxylate recoverable from the first region of the electrochemical cell and a halogen recoverable from the second region of the electrochemical cell; reacting the halogen from the second region of the electrochemical cell with at least one of an alkane, an alkene, or an aromatic compound to produce the halogenated compound and HX, the HX being recycled back to an acidification chamber; reacting the M-carboxylate with the HX via the acidification chamber to produce the carboxylic acid and MX, the MX being recycled to an input of the second region of the electrochemical cell.