mhurhangee/ep-ind-claims huggingface dataset:
An air conditioner comprising: a heat pump having a water-refrigerant heat exchanger to condense or evaporate a refrigerant by heat exchange with heat source water; a heat source water flow path connected to the water-refrigerant heat exchanger; a pump installed on the heat source water flow path; a variable flow valve installed on the heat source water flow path and capable of regulating the opening degree; and a variable flow valve controller for controlling the opening degree of the variable flow valve, wherein the variable flow valve controller comprises a heat source water minimum flow manipulation part for manipulating the minimum flow rate of the heat source water and regulates the opening degree of the variable flow valve according to the manipulation of the heat source water minimum flow manipulation part, characterized in that wherein the heat source water minimum flow rate manipulation part sets a control lower limit of the variable flow valve by a switching combination of a plurality of dip switches (104, 106), and wherein the heat source water minimum flow manipulation part sets the control lower limit set by the switching combination of the plurality of dip switches (104, 106) to be different between a cooling operation and a heating operation. a heat pump having a water-refrigerant heat exchanger to condense or evaporate a refrigerant by heat exchange with heat source water; a heat source water flow path connected to the water-refrigerant heat exchanger; a pump installed on the heat source water flow path; a variable flow valve installed on the heat source water flow path and capable of regulating the opening degree; and a variable flow valve controller for controlling the opening degree of the variable flow valve, wherein the variable flow valve controller comprises a heat source water minimum flow manipulation part for manipulating the minimum flow rate of the heat source water and regulates the opening degree of the variable flow valve according to the manipulation of the heat source water minimum flow manipulation part, characterized in that wherein the heat source water minimum flow rate manipulation part sets a control lower limit of the variable flow valve by a switching combination of a plurality of dip switches (104, 106), and wherein the heat source water minimum flow manipulation part sets the control lower limit set by the switching combination of the plurality of dip switches (104, 106) to be different between a cooling operation and a heating operation.
A converter device for measuring at least one fluid parameter of a fluid located in a flow measuring cell, consisting of a printed circuit board, a light source for generating an excitation radiation and a detector (102; 102a) arranged on the same plane as the light source for detecting a fluorescence radiation excited by the excitation radiation in the flow measuring cell and reflected back after flowing through the flow measuring cell, wherein the light source and the detector are arranged on the printed circuit board, characterized in that a radiation suppressing element comprises a gap or slit in the printed circuit board arranged between the light source and the detector, said radiation suppressing element suppressing conduction of light occurring in the printed circuit board and leading to crosstalk, wherein the gap or slit has a metallization on an end face extending substantially perpendicular to the common plane of the light source and the detector. a radiation suppressing element comprises a gap or slit in the printed circuit board arranged between the light source and the detector, said radiation suppressing element suppressing conduction of light occurring in the printed circuit board and leading to crosstalk, wherein the gap or slit has a metallization on an end face extending substantially perpendicular to the common plane of the light source and the detector.
Use of a transition metal/zeolite catalyst for reducing nitrogen oxides (NO x) in a flowing combustion exhaust gas to N 2 by oxidising nitrogen monoxide to nitrogen dioxide (NO 2) on the transition metal/zeolite catalyst at catalyst bed temperatures below 50°C and reducing NO x with the transition metal/zeolite catalyst using a hydrocarbon reductant at catalyst bed temperatures below 150°C, and wherein the transition metal/zeolite catalyst comprises a zeolite selected from the group consisting of ZSM-5, beta, X, Y, Linde type L and faujasite.
An electrolyte solution for a lithium-sulfur battery, the electrolyte solution comprising: a lithium salt; a non-aqueous solvent; and a radical adsorbent selected from 1,2-benzoquinone, 1,4-benzoquinone, 1,2-naphthoquinone, 1,4-naphthoquinone, 9,10-anthraquinone, 1,4-anthraquinone, acenaphthoquinone, simazine, N1,N4-diphenylbenzene-1,4-diamine, and a combination of any two or more thereof. a lithium salt; a non-aqueous solvent; and a radical adsorbent selected from 1,2-benzoquinone, 1,4-benzoquinone, 1,2-naphthoquinone, 1,4-naphthoquinone, 9,10-anthraquinone, 1,4-anthraquinone, acenaphthoquinone, simazine, N1,N4-diphenylbenzene-1,4-diamine, and a combination of any two or more thereof.
Method for securing and ensuring the auditability of an electronic vote, the method being implemented by computer means and comprising: - a step of receiving a temporary ballot, during which a temporary ballot is received from a voting entity, the temporary ballot being encrypted by means of a public vote encryption key, - a step of receiving a validation ballot, during which a validation ballot is received from said voting entity, the validation ballot being encrypted by means of a public validation encryption key, - a step of decrypting, during which the validation ballot is decrypted by means of a private validation encryption key associated with said public validation encryption key, - a step of validating, during which a validation request generated from the decrypted validation ballot is sent to said voting entity, the preceding steps being repeated until validation of the validation request by said voting entity whereafter the encrypted temporary ballot is recorded as a definitive ballot waiting to be counted. - a step of receiving a temporary ballot, during which a temporary ballot is received from a voting entity, the temporary ballot being encrypted by means of a public vote encryption key, - a step of receiving a validation ballot, during which a validation ballot is received from said voting entity, the validation ballot being encrypted by means of a public validation encryption key, - a step of decrypting, during which the validation ballot is decrypted by means of a private validation encryption key associated with said public validation encryption key, - a step of validating, during which a validation request generated from the decrypted validation ballot is sent to said voting entity, the preceding steps being repeated until validation of the validation request by said voting entity whereafter the encrypted temporary ballot is recorded as a definitive ballot waiting to be counted.
A surgical instrument comprising: a power transmission including a trigger and a driveshaft operatively coupled to the trigger, wherein actuation of the trigger moves the driveshaft between at least a first position and a second position; and an actuation lockout system operatively associated with the power transmission, wherein the actuation lockout system is configured to prevent movement of the driveshaft from the first position to the second position until a force greater than or equal to a threshold force is applied to the trigger, wherein the threshold force is greater than or equal to an actuation force on said trigger to actuate the surgical instrument. a power transmission including a trigger and a driveshaft operatively coupled to the trigger, wherein actuation of the trigger moves the driveshaft between at least a first position and a second position; and an actuation lockout system operatively associated with the power transmission, wherein the actuation lockout system is configured to prevent movement of the driveshaft from the first position to the second position until a force greater than or equal to a threshold force is applied to the trigger, wherein the threshold force is greater than or equal to an actuation force on said trigger to actuate the surgical instrument.
An exhaust gas purifying catalyst comprising a porous catalyst having a reaction activity for NO and NH 3 for NOx removal, and a catalyst supported by the porous catalyst and adapted to catalyze an oxidative reaction of mercury metal contained in exhaust gas, wherein the catalyst having a reaction activity for NO and NH 3 is any of Ti/V, Ti/Mo/V and Ti/W/V, and the catalyst adapted to catalyze an oxidative reaction of mercury metal consists of silicon oxide and vanadium oxide, the Si/V atomic ratio being in the range of 99.5/0.5 to 85/15.
A method of operating a relay node, the method comprising: establishing a primary cell (PCell) connection with an eNB using an out of band carrier; after establishing the PCell connection with the eNB, establishing a secondary cell (SCell) connection with the eNB using an in-band carrier; and after establishing the SCell connection with the eNB, establishing a connection with a user equipment using the in-band carrier, wherein the SCell connection with the eNB and the connection with the UE are time division duplexed on the in-band carrier, wherein establishing the SCell connection comprises: using a RRCConnectionReconfiguration message to establish the SCell connection and to indiate a subframe partitioning on the in-band carrier, wherein the subframe partitioning is used for time division duplexing between the SCell connection with the eNB and the connection with the UE; or using a RNReconfiguration message to establish the SCell connection and to indicate the subframe partitioning used for time division duplexing between the SCell connection with the eNB and the connection with the UE. establishing a primary cell (PCell) connection with an eNB using an out of band carrier; after establishing the PCell connection with the eNB, establishing a secondary cell (SCell) connection with the eNB using an in-band carrier; and after establishing the SCell connection with the eNB, establishing a connection with a user equipment using the in-band carrier, wherein the SCell connection with the eNB and the connection with the UE are time division duplexed on the in-band carrier, wherein establishing the SCell connection comprises: using a RRCConnectionReconfiguration message to establish the SCell connection and to indiate a subframe partitioning on the in-band carrier, wherein the subframe partitioning is used for time division duplexing between the SCell connection with the eNB and the connection with the UE; or using a RNReconfiguration message to establish the SCell connection and to indicate the subframe partitioning used for time division duplexing between the SCell connection with the eNB and the connection with the UE. using a RRCConnectionReconfiguration message to establish the SCell connection and to indiate a subframe partitioning on the in-band carrier, wherein the subframe partitioning is used for time division duplexing between the SCell connection with the eNB and the connection with the UE; or using a RNReconfiguration message to establish the SCell connection and to indicate the subframe partitioning used for time division duplexing between the SCell connection with the eNB and the connection with the UE.
A method for monitoring condition of a structure (350, 380, 390) of a building, the method comprising: - determining first temperature information (T 1,TINF1) from first temperature data (TDATA1) obtained from a first temperature sensor, wherein the first temperature sensor is positioned within the structure (350, 380, 390), the first temperature sensor is an RFID transponder arranged to transmit the first temperature data (TDATA1), the first temperature sensor is arranged to extract operating energy from a radio frequency field, and the structure (350, 380, 390) has an increased thermal conductivity in an abnormal condition when compared with a reference condition of the structure (350, 380, 390), characterized in that the method further comprises: - measuring a spatial temperature profile across the structure (350, 380, 390) by using the first temperature data (TDATA1) obtained from the first temperature sensor, by using second temperature data (TDATA2) obtained from a second temperature sensor (100b, 902), and by using third temperature data (TDATA3) obtained from a third temperature sensor (100c, 903), and - detecting an abnormal condition of the structure (350, 380, 390) by comparing the measured temperature profile with a reference temperature profile (REFCRV1), wherein the first sensor is positioned within the structure (350, 380, 390) such that a first distance (zi) between the first temperature sensor and an inner surface (INSRF) of the structure (350, 380, 390) is different from a second distance (z 2) between the second temperature sensor (100b, 902) and the inner surface (INSRF). - determining first temperature information (T 1,TINF1) from first temperature data (TDATA1) obtained from a first temperature sensor, - measuring a spatial temperature profile across the structure (350, 380, 390) by using the first temperature data (TDATA1) obtained from the first temperature sensor, by using second temperature data (TDATA2) obtained from a second temperature sensor (100b, 902), and by using third temperature data (TDATA3) obtained from a third temperature sensor (100c, 903), and - detecting an abnormal condition of the structure (350, 380, 390) by comparing the measured temperature profile with a reference temperature profile (REFCRV1),
A processed citrus fruit juice or the concentrate thereof, wherein said juice or the concentrate thereof is substantially free of bitterness and unfavorable smell such as odour, and has a sugar-acid ratio of 14:1 to 20:1, preferably 14:1 to 18:1, wherein the citrus fruit is navel orange and wherein the navel orange is Newhall navel orange, and wherein said citrus fruit juice or the concentrate thereof is produced by a method comprising: a) squeezing a citrus fruit that has been integrally washed with a squeezer to produce a citrus fruit juice, simultaneously adding an acid harmless to human so that the squeezed citrus fruit juice has a total acid content of 0.85-1.0wt%; b) heating the citrus fruit juice obtained in a) above at 75°C±5°C to 80°C±2°C for 30±10 to 60±5 seconds to obtain a citrus fruit juice substantially free of bitterness and free of unfavorable smell; or c) if necessary, further concentrating the citrus fruit juice in b) according to a conventional method in the art to a volume that is 1/2-1/10, preferably 1/2-1/6, more preferably 1/4-1/6, the volume of the citrus fruit juice, to obtain a concentrate of citrus fruit juice. a) squeezing a citrus fruit that has been integrally washed with a squeezer to produce a citrus fruit juice, simultaneously adding an acid harmless to human so that the squeezed citrus fruit juice has a total acid content of 0.85-1.0wt%; b) heating the citrus fruit juice obtained in a) above at 75°C±5°C to 80°C±2°C for 30±10 to 60±5 seconds to obtain a citrus fruit juice substantially free of bitterness and free of unfavorable smell; or c) if necessary, further concentrating the citrus fruit juice in b) according to a conventional method in the art to a volume that is 1/2-1/10, preferably 1/2-1/6, more preferably 1/4-1/6, the volume of the citrus fruit juice, to obtain a concentrate of citrus fruit juice.
An inert gas generation system from a flow of air, notably for an inerting system for at least one aircraft fuel tank, said generation comprising an air circuit comprising an air inlet, an inert gas outlet, and a first and a second air separation module (5, 6) arranged in series on said air circuit to deplete oxygen within the air and to generate a nitrogen-enriched inert gas, the air circuit comprising routing means (7, 9) for a portion of the air flow upstream of the first module directly to the second module, and routing means (8, 10) for the entire air flow downstream from the first module directly to the inert gas outlet, characterized in that it comprises a first valve and a second valve arranged on the air circuit between the first module and the second module, the first valve being connected to the inert gas outlet by a first bypass circuit, and the second valve being connected to the air circuit upstream of the first module by a second bypass circuit.
A piston assembly transportation and assembly apparatus configured to maintain a piston assembly in its assembled state during transportation and to aid in the installation of the piston assembly into a cylinder bore, comprising: a housing having a bore bounded by an inner cylindrical surface extending from a first end of said housing toward a second end of said housing, a chamfered surface diverging radially outwardly from said first end toward said second end and said second end having a wall extending radially inwardly from said inner cylindrical surface to axially confront an upper crown of the piston assembly. a housing having a bore bounded by an inner cylindrical surface extending from a first end of said housing toward a second end of said housing, a chamfered surface diverging radially outwardly from said first end toward said second end and said second end having a wall extending radially inwardly from said inner cylindrical surface to axially confront an upper crown of the piston assembly.
Method for determining an operating point of a work machine and/or of an asynchronous motor driving the latter, a power input of the work machine and/or its delivery rate characterizing an operating point, one or more operating point-dependent measurement variables of the work machine being detected by one or more sensors, and the measurement values being evaluated and/or stored while the work machine is in operation, characterized in that the operating point is determined without the use of electrical measurement variables of the driving asynchronous motor, and in that a frequency linearly proportional to the rotational sound of the work machine is determined from a mechanical measurement variable, namely pressure, differential pressure, force, vibration, solid-borne noise or airborne noise, by means of signal analysis, in particular frequency analysis, the rotational speed (n) of the drive machine being determined from this, and the operating point being determined from the slip-induced rotational speed/torque dependence of the asynchronous motor.
A terminal assembly comprising: a terminal having a wire barrel configured to be crimped to a wire and a mating segment configured to be mated to a mating component; and a wire retention seal received in the wire barrel, the wire retention seal having a terminal mounting flange engaging the wire barrel, the wire retention seal having a wire retention sleeve defining a wire bore configured to receive an end of the wire, said wire retention sleeve extending from said terminal mounting flange, the wire retention sleeve being configured to interfere with the wire to axially retain the wire retention seal on the end of the wire prior to crimping the wire barrel to the wire, a relief space being defined concentrically between the wire barrel and the wire retention sleeve, characterised in that: (i) the relief space is configured to be eliminated when the wire barrel is crimped to the wire retention sleeve and the wire; and (ii) the terminal mounting flange engages the wire barrel to axially secure the wire retention seal to the terminal, and the wire barrel includes a mounting channel receiving the terminal mounting flange to hold an axial position of the wire retention seal relative to the terminal. a terminal having a wire barrel configured to be crimped to a wire and a mating segment configured to be mated to a mating component; and a wire retention seal received in the wire barrel, the wire retention seal having a terminal mounting flange engaging the wire barrel, the wire retention seal having a wire retention sleeve defining a wire bore configured to receive an end of the wire, said wire retention sleeve extending from said terminal mounting flange, the wire retention sleeve being configured to interfere with the wire to axially retain the wire retention seal on the end of the wire prior to crimping the wire barrel to the wire, a relief space being defined concentrically between the wire barrel and the wire retention sleeve, characterised in that: (i) the relief space is configured to be eliminated when the wire barrel is crimped to the wire retention sleeve and the wire; and (ii) the terminal mounting flange engages the wire barrel to axially secure the wire retention seal to the terminal, and the wire barrel includes a mounting channel receiving the terminal mounting flange to hold an axial position of the wire retention seal relative to the terminal. (i) the relief space is configured to be eliminated when the wire barrel is crimped to the wire retention sleeve and the wire; and (ii) the terminal mounting flange engages the wire barrel to axially secure the wire retention seal to the terminal, and the wire barrel includes a mounting channel receiving the terminal mounting flange to hold an axial position of the wire retention seal relative to the terminal.
A device for printing on, in particular non-rotationally symmetric, containers (110, 210), comprising: at least one printing unit (120a-e) including at least one print head (320, 420, 620); a conveying system, which includes a plurality of container reception means (130, 230) arranged for rotation about axes of rotation and which is configured such that the container reception means (130, 230) circulate on a closed path and a print area of an outer surface of a container (110, 210) accommodated in a container reception means (130, 230) is movable past the print head (320, 420, 620); and at least one first drive adapted to rotate the container reception means (130, 230), accommodating the container (110, 210), about its axis of rotation by means of at least one open-loop and/or closed-loop control unit, characterized in that the first drive is adapted to be variably controlled such that the print area is moved past the print head (320, 420, 620) at a predetermined, substantially constant printing distance by controlled superposition of the rotary movement about the axis of rotation and the circulation of the container reception means (130, 230) on the closed path. at least one printing unit (120a-e) including at least one print head (320, 420, 620); a conveying system, which includes a plurality of container reception means (130, 230) arranged for rotation about axes of rotation and which is configured such that the container reception means (130, 230) circulate on a closed path and a print area of an outer surface of a container (110, 210) accommodated in a container reception means (130, 230) is movable past the print head (320, 420, 620); and at least one first drive adapted to rotate the container reception means (130, 230), accommodating the container (110, 210), about its axis of rotation by means of at least one open-loop and/or closed-loop control unit, characterized in that the first drive is adapted to be variably controlled such that the print area is moved past the print head (320, 420, 620) at a predetermined, substantially constant printing distance by controlled superposition of the rotary movement about the axis of rotation and the circulation of the container reception means (130, 230) on the closed path.