mhurhangee/ep-ind-claims huggingface dataset:
A mobile station (111, 112, 113, 114, 115, 116) for transmitting data in a communication system, the mobile station comprising: at least one transmit antenna; and a transmitter configured to communicate with at least one base station(101, 102, 103) using a plurality of downlink component carriers and at least one uplink component carrier, and a controller configured to control the transmitter to transmit at least one periodic Physical Uplink Control Channel, PUCCH, channel quality index, CQI, report for a downlink component carrier in the at least one uplink component carrier, and the transmitter to transmit, if a number of uplink component carriers is less than a number of downlink component carriers, the CQI reports corresponding to a subset of the plurality of downlink component carriers by transmitting at least two CQI reports corresponding to the subset of the plurality of downlink component carriers over one uplink component carrier, wherein the controller is further configured to control the transmitter to transmit a first PUCCH CQI report for a first downlink component carrier over a first uplink component carrier in a first subframe and over a second uplink component carrier in a second subframe subsequent to the first subframe. at least one transmit antenna; and a transmitter configured to communicate with at least one base station(101, 102, 103) using a plurality of downlink component carriers and at least one uplink component carrier, and a controller configured to control the transmitter to transmit at least one periodic Physical Uplink Control Channel, PUCCH, channel quality index, CQI, report for a downlink component carrier in the at least one uplink component carrier, and the transmitter to transmit, if a number of uplink component carriers is less than a number of downlink component carriers, the CQI reports corresponding to a subset of the plurality of downlink component carriers by transmitting at least two CQI reports corresponding to the subset of the plurality of downlink component carriers over one uplink component carrier, wherein the controller is further configured to control the transmitter to transmit a first PUCCH CQI report for a first downlink component carrier over a first uplink component carrier in a first subframe and over a second uplink component carrier in a second subframe subsequent to the first subframe.
A TPMS (tire pressure monitoring system) sensor setting method, comprising the steps of: A) providing a burning tool, said burning tool comprising a display unit, an input device, a low-frequency transmission unit and a wireless transmitter receiver unit; B) operating said burning tool to transmit a trigger signal to TPMS sensors, enabling each TPMS sensor to feed back a response signal after receipt of the trigger signal, which response signal containing the ID code of the respective TPMS sensor; C) said burning tool displaying on the display unit thereof the ID codes of all TPMS sensors that bed back the respective response signals to said burning tool; and D) operating the input device of said burning tool to select the ID codes of the TPMS sensors and the communication protocol to be burned where the selected communication protocol contains the coding of the vehicle brand of the vehicle carrying the TPMS sensors, and then operating said burning tool to transmit the selected communication protocol to each selected TPMS sensor, enabling the selected communication protocol to be simultaneously burned into all the selected TPMS sensors. A) providing a burning tool, said burning tool comprising a display unit, an input device, a low-frequency transmission unit and a wireless transmitter receiver unit; B) operating said burning tool to transmit a trigger signal to TPMS sensors, enabling each TPMS sensor to feed back a response signal after receipt of the trigger signal, which response signal containing the ID code of the respective TPMS sensor; C) said burning tool displaying on the display unit thereof the ID codes of all TPMS sensors that bed back the respective response signals to said burning tool; and D) operating the input device of said burning tool to select the ID codes of the TPMS sensors and the communication protocol to be burned where the selected communication protocol contains the coding of the vehicle brand of the vehicle carrying the TPMS sensors, and then operating said burning tool to transmit the selected communication protocol to each selected TPMS sensor, enabling the selected communication protocol to be simultaneously burned into all the selected TPMS sensors.
A system for controlling a fuel-fired heating appliance having a burner, comprising: a fuel flow control for controlling the rate of fuel flow to the burner; and a combustion air blower having a variable speed motor for varying the flow rate of combustion air supplied to the burner, the system comprising; a sensor for sensing a flame at the burner and providing an output of a flame current signal; and a controller in communication with the combustion air blower, the gas flow control, and the sensor for sensing flame current, and operable to detect the occurrence of a flame instability, the controller being configured to process the flame current signal by measuring the sensed flame current signal waveform at a given data sampling rate and using a Fourier transformation to transform the measured data into a frequency spectrum having a spectrum shape defined by various frequency components of varying amplitude, characterized in that the controller is configured to determine, based on comparison of frequency spectrum shapes, whether the flame current signal changes from presenting a frequency spectrum shape indicative of flame stability and normal combustion to presenting a frequency spectrum shape indicative of flame instability and less than desirable combustion caused by an inadequate air flow rate relative to the fuel flow rate, and in response to said change the controller adjusts one of the combustion air blower speed or the fuel flow rate to increase the air flow rate relative to the fuel flow rate until the controller detects that the sensed flame current signal is indicative of normal combustion.
A biosensor, comprising an insulating base plate, an electrode system containing at least a working electrode and a counter electrode and formed on the insulating base plate, and a sample-supplying section formed on the electrode system, wherein the sample-supplying section has a reaction layer comprising: a first reaction layer formed on the electrode system and containing at least a redox enzyme into which pyrroloquinoline quinone, flavin adenine dinucleotide, or flavin mononucleotide is incorporated as a prosthetic group; and a second reaction layer formed by applying, onto the first reaction layer, a solution including a lipid decomposing enzyme. a first reaction layer formed on the electrode system and containing at least a redox enzyme into which pyrroloquinoline quinone, flavin adenine dinucleotide, or flavin mononucleotide is incorporated as a prosthetic group; and a second reaction layer formed by applying, onto the first reaction layer, a solution including a lipid decomposing enzyme.
A process for enriching an iron mineral from a silicate-containing iron ore by reverse froth flotation of the ore using a collecting composition comprising a) a compound of formula R 1 O-A-NH(CH 2) n NH 2, wherein R 1 is a straight or branched hydrocarbyl group with 12-15 carbon atoms, A is a group -CH 2 CHXCH 2 -, wherein X is hydrogen or a hydroxyl group, and n is a number 2-6; b) a compound of formula R 2 NH 2, wherein R 2 is a hydrocarbyl group having 12-14 carbon atoms; c) a compound of formula R 3 NH 2, wherein R 3 is a straight or branched, saturated or unsaturated hydrocarbyl group having 16-22 carbon atoms; and d) optionally a depressing agent for the iron mineral, wherein the amount of a) is at least 65% by weight, based on the total weight of a), b) and c), and at most 90% by weight, based on the total weight of a), b) and c), and wherein the weight ratio between c) and b) is 4:1 to 1:1. a) a compound of formula R 1 O-A-NH(CH 2) n NH 2, wherein R 1 is a straight or branched hydrocarbyl group with 12-15 carbon atoms, A is a group -CH 2 CHXCH 2 -, wherein X is hydrogen or a hydroxyl group, and n is a number 2-6; b) a compound of formula R 2 NH 2, wherein R 2 is a hydrocarbyl group having 12-14 carbon atoms; c) a compound of formula R 3 NH 2, wherein R 3 is a straight or branched, saturated or unsaturated hydrocarbyl group having 16-22 carbon atoms; and d) optionally a depressing agent for the iron mineral,
A method of removing mites, applicable to a crawling mite remover, the method comprising: upon receiving mite removing instruction, acquiring a target path for mite removal and switching from a hibernation state to a crawling state; in the crawling state, crawling according to the target path and performing mite removal during the crawling process; and switching from the crawling state to the hibernation state after crawling to an end position of the target path; wherein the crawling mite remover comprises: a first motor, and a plurality of legs, being characterized in that the plurality of legs are disposed at a side of the body; the processor and the first motor are disposed in the body, the processor is connected to the first motor, and the first motor is connected to the plurality of legs; the processor sends a moving signal to the first motor; and based on the movement signal, the first motor drives the plurality of legs to perform a telescopic movement, driving the body to move on a surface of an object, and the body performs mite removal on the surface of the object. upon receiving mite removing instruction, acquiring a target path for mite removal and switching from a hibernation state to a crawling state; in the crawling state, crawling according to the target path and performing mite removal during the crawling process; and switching from the crawling state to the hibernation state after crawling to an end position of the target path; wherein the crawling mite remover comprises: a first motor, and a plurality of legs, being characterized in that the plurality of legs are disposed at a side of the body; the processor and the first motor are disposed in the body, the processor is connected to the first motor, and the first motor is connected to the plurality of legs; the processor sends a moving signal to the first motor; and based on the movement signal, the first motor drives the plurality of legs to perform a telescopic movement, driving the body to move on a surface of an object, and the body performs mite removal on the surface of the object. the plurality of legs are disposed at a side of the body; the processor and the first motor are disposed in the body, the processor is connected to the first motor, and the first motor is connected to the plurality of legs; the processor sends a moving signal to the first motor; and based on the movement signal, the first motor drives the plurality of legs to perform a telescopic movement, driving the body to move on a surface of an object, and the body performs mite removal on the surface of the object.
A network facsimile apparatus connectable to an image data source and to a network, the network facsimile apparatus comprising: a communicator configured to transmit image data attached to to an e-mail in accordance with SMTP to a receiving apparatus via the network; and a memory configured to store a plurality of user names and mail addresses of a plurality of users of the network facsimile apparatus; the e-mail, to which the image data is attached as a document, has an e-mail format that comprises a first field which indicates a first transmitter address that is utilized for returning an error mail, and a second field which indicates a transmitter's name and a second transmitter address that is utilized for a reply to the email reaching an intended person; characterized in that the network facsimile apparatus further comprises: a panel configured to select one among said plurality of user names and mail addresses stored in the memory as the transmitter's name and the second transmitter address, respectively; and a controller configured to set the first transmitter address in the first field, the first transmitter address being a default transmitter address stored in the memory, and to set the user name and second transmitter address selected via the panel in the second field of the e-mail to which the image data is attached. a communicator configured to transmit image data attached to to an e-mail in accordance with SMTP to a receiving apparatus via the network; and a memory configured to store a plurality of user names and mail addresses of a plurality of users of the network facsimile apparatus; the e-mail, to which the image data is attached as a document, has an e-mail format that comprises a first field which indicates a first transmitter address that is utilized for returning an error mail, and a second field which indicates a transmitter's name and a second transmitter address that is utilized for a reply to the email reaching an intended person; characterized in that the network facsimile apparatus further comprises: a panel configured to select one among said plurality of user names and mail addresses stored in the memory as the transmitter's name and the second transmitter address, respectively; and a controller configured to set the first transmitter address in the first field, the first transmitter address being a default transmitter address stored in the memory, and to set the user name and second transmitter address selected via the panel in the second field of the e-mail to which the image data is attached. a panel configured to select one among said plurality of user names and mail addresses stored in the memory as the transmitter's name and the second transmitter address, respectively; and a controller configured to set the first transmitter address in the first field, the first transmitter address being a default transmitter address stored in the memory, and to set the user name and second transmitter address selected via the panel in the second field of the e-mail to which the image data is attached.
A radiation detecting system for tomography, comprising: an accumulator; and at least one photomultiplier cell comprising: a detector unit (101a, 101b) that is configured to generate a digitized detect signal in response to receiving light having a certain range of wavelength; and a readOUT unit configured to generate an output signal (DATA line 1) corresponding to the detect signal generated by the detector unit and to transmit the output signal to the accumulator after receiving the detect signal; the accumulator being configured to measure an amount of radiation based on the output signal received from the readout unit; the at least one photomultiplier cell includes a plurality of photomultiplier cells; characterized in that; the accumulator includes a plurality of current mirror circuits; each of the plurality of current mirror circuits includes a transistor (TR_x); the accumulator is configured to generate a plurality of digital signals based on turning on or turning off the transistor (TR_x) of each of the plurality of current mirror circuits in response to the output signal received from the readOUT units of the plurality of photomultiplier cells; and the accumulator includes a count unit that is configured to receive the plurality of digital signals and to measure an amount of radiation based on the plurality of digital signals. an accumulator; and at least one photomultiplier cell comprising: a detector unit (101a, 101b) that is configured to generate a digitized detect signal in response to receiving light having a certain range of wavelength; and a readOUT unit configured to generate an output signal (DATA line 1) corresponding to the detect signal generated by the detector unit and to transmit the output signal to the accumulator after receiving the detect signal; a detector unit (101a, 101b) that is configured to generate a digitized detect signal in response to receiving light having a certain range of wavelength; and a readOUT unit configured to generate an output signal (DATA line 1) corresponding to the detect signal generated by the detector unit and to transmit the output signal to the accumulator after receiving the detect signal; the accumulator being configured to measure an amount of radiation based on the output signal received from the readout unit; the at least one photomultiplier cell includes a plurality of photomultiplier cells; characterized in that; the accumulator includes a plurality of current mirror circuits; each of the plurality of current mirror circuits includes a transistor (TR_x); the accumulator is configured to generate a plurality of digital signals based on turning on or turning off the transistor (TR_x) of each of the plurality of current mirror circuits in response to the output signal received from the readOUT units of the plurality of photomultiplier cells; and the accumulator includes a count unit that is configured to receive the plurality of digital signals and to measure an amount of radiation based on the plurality of digital signals.
A vibration damper for archery bows comprising a housing extending along an axis and forming at least one chamber (37, 38, 39, 40), wherein the at least one chamber (37, 38, 39, 40) is partially filled with granular solid material, wherein the housing is formed by a stack of two or more bowl-shaped parts (1, 2, 4) arranged along the axis, wherein the at least one chamber is closed by the subsequent part in the stack, wherein the stack of parts is held together by a central attachment device extending along the axis, to close the at least one chamber, such that the at least one chamber forms an open space circumventing the central attachment device, and wherein each part in the stack is provided with a tubular protrusion (21, 27, 32) extending along the length of the part in the axial direction forming a through hole (22, 28, 33) through the stack for receiving the central attachment device.
An image processing apparatus, comprising: an image acquisition unit that acquires a plurality of endoscope images obtained by imaging an observation target at different times with an endoscope; a blood vessel extraction unit that extracts blood vessels of the observation target from each of the plurality of endoscope images; a blood vessel information calculation unit that calculates a plurality of pieces of blood vessel information for each of the blood vessels extracted from the endoscope images; a blood vessel parameter calculation unit that calculates a blood vessel parameter, which is relevant to the blood vessels extracted from each of the endoscope images, by calculation using the blood vessel information; and a blood vessel change index calculation unit that calculates a blood vessel change index, which indicates a temporal change of the blood vessels of the observation target, using the blood vessel parameter. an image acquisition unit that acquires a plurality of endoscope images obtained by imaging an observation target at different times with an endoscope; a blood vessel extraction unit that extracts blood vessels of the observation target from each of the plurality of endoscope images; a blood vessel information calculation unit that calculates a plurality of pieces of blood vessel information for each of the blood vessels extracted from the endoscope images; a blood vessel parameter calculation unit that calculates a blood vessel parameter, which is relevant to the blood vessels extracted from each of the endoscope images, by calculation using the blood vessel information; and a blood vessel change index calculation unit that calculates a blood vessel change index, which indicates a temporal change of the blood vessels of the observation target, using the blood vessel parameter.
A method of examining a cryogenic specimen in a Charged Particle Microscope, comprising: - Providing the specimen in a cryogenic cell on a specimen holder; - Directing a charged particle beam from a source and along an axis (B') through an evacuated beam conduit (B") of an illuminator system so as to irradiate at least a portion of the specimen therewith; - Using a detector (30, 32, 34) to detect radiation emanating from the specimen in response to said irradiation, - Configuring said cell to comprise an elongate tube that extends within said beam conduit into said illuminator system and encloses said axis; - Maintaining said tube at a cryogenic temperature at least during said irradiation, wherein: - Said specimen holder is maintained at a cryogenic temperature using a temperature control assembly; - Said elongate tube has thermally conducting walls that connect intimately to said cryogenic cell, as a result of which the tube is cooled to a cryogenic temperature; characterized in that - Said cryogenic cell is maintained at a cryogenic temperature by virtue of intimate thermal contact with said specimen holder. - Providing the specimen in a cryogenic cell on a specimen holder; - Directing a charged particle beam from a source and along an axis (B') through an evacuated beam conduit (B") of an illuminator system so as to irradiate at least a portion of the specimen therewith; - Using a detector (30, 32, 34) to detect radiation emanating from the specimen in response to said irradiation, - Configuring said cell to comprise an elongate tube that extends within said beam conduit into said illuminator system and encloses said axis; - Maintaining said tube at a cryogenic temperature at least during said irradiation, - Said specimen holder is maintained at a cryogenic temperature using a temperature control assembly; - Said elongate tube has thermally conducting walls that connect intimately to said cryogenic cell, as a result of which the tube is cooled to a cryogenic temperature; characterized in that - Said cryogenic cell is maintained at a cryogenic temperature by virtue of intimate thermal contact with said specimen holder.
A method for galvanically isolated, AC/DC sensitive differential current measurement in a power supply system, comprising a measuring current transformer having a line of the power supply system functioning as primary winding through which a current to be measured is flowing, a transformer coupling between the primary winding and a secondary winding via a shared magnetic flux which forms a magnetic circuit having at least one segment made from a material of relative permeability, wherein in the secondary winding a first partial voltage proportional to the change in time of the primary-side current is induced, wherein, due to a change in time of the relative permeability in the material forming the segment, which is effected by a control current (i st (t)), a second partial voltage is induced in the secondary winding, said second partial voltage being directly proportional to a direct current to be measured in the primary winding, and wherein, at a load resistance (R B) of the secondary winding of the measuring current transformer, a sum measuring voltage (u B (t)) can be registered due to the first and second induced partial voltage superimposing each other and the registered sum measuring voltage (u B (t)) is assessed synchronously to the temporally changeable control current (i st (t)), wherein the assessment of the registered sum measuring voltage (u B (t)) is effected by means of a voltage (U st) which is synchronous to the temporally changeable control current (i st (t)) and by which the sum measuring voltage (u B (t)) registered at the load resistance (R B) is multiplied, resulting in a second measuring signal proportional to the direct current to be measured, wherein, for the improved registration of a first measuring signal which can be attributed to the first induced partial voltage and the second measuring signal, a frequency of the control current (i st (t)) is switched cyclically between at least two frequencies.