mhurhangee/ep-ind-claims huggingface dataset:
An adjustment device for adjusting shutoff strips (35a-35c, 36a-36c) of an at least partly closable air inlet of a motor compartment of a motor vehicle between at least a first position in which the shutoff strips (35a-35c, 36a-36c)leave the air inlet at least partly open and a second position in which the shutoff strips (35a-35c, 36a-36c) at least partly close the air inlet, comprising: a housing; and a drive unit situated in the housing for adjusting the shutoff strips between at least the first position and the second position, wherein the drive unit comprises a motor and a drive train with reduction stage, wherein the drive train comprises an output shaft which is provided with a first coupling means facing outside the housing and a second coupling means facing outside the housing, opposite with respect to the first coupling means, wherein the first and second coupling means (22, 23) are configured to cooperate with, respectively, a first and a second coupling element (37, 38) of a first and second set (35, 36) of shutoff strips (35a-35c, 36a-36c), respectively, for coupling the output shaft on both sides of the housing to the first and second set (35, 36) of shutoff strips (35a-35c, 36a-36c), respectively, wherein the first coupling means and the second coupling means are integrated with each other in the output shaft, characterized in that the first and second coupling means (22,23) form a through-hole that extends through the output shaft and that is arranged for receiving an insertion shaft forming an integrated first and second coupling element (37, 39). a housing; and a drive unit situated in the housing for adjusting the shutoff strips between at least the first position and the second position, wherein the drive unit comprises a motor and a drive train with reduction stage, wherein the drive train comprises an output shaft which is provided with a first coupling means facing outside the housing and a second coupling means facing outside the housing, opposite with respect to the first coupling means, wherein the first and second coupling means (22, 23) are configured to cooperate with, respectively, a first and a second coupling element (37, 38) of a first and second set (35, 36) of shutoff strips (35a-35c, 36a-36c), respectively, for coupling the output shaft on both sides of the housing to the first and second set (35, 36) of shutoff strips (35a-35c, 36a-36c), respectively, wherein the first coupling means and the second coupling means are integrated with each other in the output shaft, characterized in that the first and second coupling means (22,23) form a through-hole that extends through the output shaft and that is arranged for receiving an insertion shaft forming an integrated first and second coupling element (37, 39).
Method of performing a plug and abandonment operation in a well by the use of a combined perforate and wash tool, the tool comprising a perforation tool at a lower end, at least one lower set of a sealing arrangement arranged below a fluid displacement arrangement comprising a plurality of radial holes, and at least one upper set of a sealing arrangement arranged above the radial holes, wherein the method comprises the steps of: a) lowering the tool to the desired location in the well, b) perforating at least a section of a casing in the well, if the section is not already perforated, c) washing an annulus about said perforated section by pumping washing and/or cleaning fluid through the radial holes in the displacement arrangement, the method characterized in that it further comprises the steps of: d) sealing off a lower portion of the well at a location below the perforated section by the use of the at least one lower set of sealing arrangement, e) sealing off the well in a lower portion of the perforated section by using the upper set of sealing arrangement, f) pumping sealing fluid through the radial holes of the displacement arrangement, g) lifting the tool through, and above, the perforated section, while continuing pumping of the sealing fluid. a) lowering the tool to the desired location in the well, b) perforating at least a section of a casing in the well, if the section is not already perforated, c) washing an annulus about said perforated section by pumping washing and/or cleaning fluid through the radial holes in the displacement arrangement, d) sealing off a lower portion of the well at a location below the perforated section by the use of the at least one lower set of sealing arrangement, e) sealing off the well in a lower portion of the perforated section by using the upper set of sealing arrangement, f) pumping sealing fluid through the radial holes of the displacement arrangement, g) lifting the tool through, and above, the perforated section, while continuing pumping of the sealing fluid.
A sealing device arranged around a rod electrode extending vertically through an aperture made in the ceiling of an arc furnace and being vertically movable inside the furnace to prevent the access of gases from the furnace through the aperture to the atmosphere, and on the other hand to prevent air from flowing from the atmosphere into the furnace, the sealing device comprising: - a gas distribution chamber provided with an inlet channel for feeding essentially passive gas, such as nitrogen or air, in the gas distribution chamber, and - a nozzle through which a gas jet is arranged to be discharged from the gas distribution chamber towards the electrode, characterized in that the nozzle is a slit nozzle encasing the electrode and discharging the gas jet in a direction that is at an angle (α) with respect to the horizontal plane and has a slightly upwards inclined orientation, and that is, with respect to the furnace interior, pointed outwardly, so that the sealing is carried out owing to the effect of the created stagnation pressure; and that the sealing device is assembled on an electrically insulating slide bearing comprising: - a metallic first base ring that is arranged on top of the edge of the aperture, - a second base ring made of an electrically insulating material, arranged on top of the first base ring, and - a metallic third base ring that is arranged on top of the second base ring, so that on top of said third base ring, the sealing device is arranged to rest only by gravity, without other fastening, in order to allow a limited lateral movement of the sealing device for adapting to the lateral movement of the electrode. - a gas distribution chamber provided with an inlet channel for feeding essentially passive gas, such as nitrogen or air, in the gas distribution chamber, and - a nozzle through which a gas jet is arranged to be discharged from the gas distribution chamber towards the electrode, characterized in that the nozzle is a slit nozzle encasing the electrode and discharging the gas jet in a direction that is at an angle (α) with respect to the horizontal plane and has a slightly upwards inclined orientation, and that is, with respect to the furnace interior, pointed outwardly, so that the sealing is carried out owing to the effect of the created stagnation pressure; and that the sealing device is assembled on an electrically insulating slide bearing comprising: - a metallic first base ring that is arranged on top of the edge of the aperture, - a second base ring made of an electrically insulating material, arranged on top of the first base ring, and - a metallic third base ring that is arranged on top of the second base ring, so that on top of said third base ring, the sealing device is arranged to rest only by gravity, without other fastening, in order to allow a limited lateral movement of the sealing device for adapting to the lateral movement of the electrode.
A heterophasic propylene copolymer composition comprising a heterophasic propylene copolymer (HECO), comprising (a) a matrix comprising a propylene homo- or copolymer, said propylene homo- or copolymer comprises at least two propylene homo- and/or copolymer fractions, propylene homo- or copolymer fraction and propylene homo- or copolymer fraction, wherein propylene homo- or copolymer fraction has a melt flow rate MFR2 (230°C) of 250 g/10 min or more, preferably of 300 g/10min or more, more preferably of more than 300 g/10min, and propylene homo- or copolymer fraction has a melt flow rate MFR2 (230°C) in the range of from 0.5 to 25 g/10 min, preferably in the range of from 1 to 20 g/10min; and (b) an elastomeric propylene copolymer, preferably a uni- or bimodal elastomeric propylene copolymer, more preferably a unimodal elastomeric propylene copolymer, dispersed in said matrix, wherein (i) the heterophasic propylene copolymer composition has a melt flow rate MFR2 (230°C) of at least 50 g/10 min; (ii) the amount of propylene homo- or copolymer fraction is from 45 wt.% to 95 wt.% based on the total amount of all propylene homo- and/ or copolymer fractions present in the matrix; (iii) the amount of propylene homo- or copolymer fraction is from 5 wt.% to less than 15 wt.% based on the total amount of all propylene homo- and/ or copolymer fractions present in the matrix; and (iv) the soluble fraction according to CRYSTEX QC of the heterophasic propylene copolymer composition comprises more than 18.0 wt.% of the total heterophasic propylene copolymer composition (HECO). (a) a matrix comprising a propylene homo- or copolymer, said propylene homo- or copolymer comprises at least two propylene homo- and/or copolymer fractions, propylene homo- or copolymer fraction and propylene homo- or copolymer fraction, wherein propylene homo- or copolymer fraction has a melt flow rate MFR2 (230°C) of 250 g/10 min or more, preferably of 300 g/10min or more, more preferably of more than 300 g/10min, and propylene homo- or copolymer fraction has a melt flow rate MFR2 (230°C) in the range of from 0.5 to 25 g/10 min, preferably in the range of from 1 to 20 g/10min; and (b) an elastomeric propylene copolymer, preferably a uni- or bimodal elastomeric propylene copolymer, more preferably a unimodal elastomeric propylene copolymer, dispersed in said matrix, (i) the heterophasic propylene copolymer composition has a melt flow rate MFR2 (230°C) of at least 50 g/10 min; (ii) the amount of propylene homo- or copolymer fraction is from 45 wt.% to 95 wt.% based on the total amount of all propylene homo- and/ or copolymer fractions present in the matrix; (iii) the amount of propylene homo- or copolymer fraction is from 5 wt.% to less than 15 wt.% based on the total amount of all propylene homo- and/ or copolymer fractions present in the matrix; and (iv) the soluble fraction according to CRYSTEX QC of the heterophasic propylene copolymer composition comprises more than 18.0 wt.% of the total heterophasic propylene copolymer composition (HECO).
An in-room air conditioner adjustment apparatus, comprising: multiple temperature sensors (101a, 101b, 101c), wherein the multiple temperature sensors are separately disposed on return air vent sides of air conditioners (100a, 100b, 100c) comprised in a room in which the apparatus is located, and are configured to detect a return air temperature on a return air vent side of each air conditioner; and a controller, separately connected to the multiple temperature sensors, and configured to: obtain a return air temperature detected by each temperature sensor and adjust, for each air conditioner, according to a difference between the obtained return air temperature and a temperature threshold, a fan rotational speed of said air conditioner until it is determined that an absolute value of the difference between the return air temperature detected by each temperature sensor and the temperature threshold is less than a first specified value; and when the absolute value of the difference between the return air temperature detected by each temperature sensor and the temperature threshold is less than the first specified value, if it is determined that an absolute value of a difference between fan rotational speeds of any two adjacent air conditioners is greater than a second specified value, adjust a fan rotational speed of the air conditioner whose fan rotational speed is smaller in the two adjacent air conditioners. multiple temperature sensors (101a, 101b, 101c), wherein the multiple temperature sensors are separately disposed on return air vent sides of air conditioners (100a, 100b, 100c) comprised in a room in which the apparatus is located, and are configured to detect a return air temperature on a return air vent side of each air conditioner; and a controller, separately connected to the multiple temperature sensors, and configured to: obtain a return air temperature detected by each temperature sensor and adjust, for each air conditioner, according to a difference between the obtained return air temperature and a temperature threshold, a fan rotational speed of said air conditioner until it is determined that an absolute value of the difference between the return air temperature detected by each temperature sensor and the temperature threshold is less than a first specified value; and when the absolute value of the difference between the return air temperature detected by each temperature sensor and the temperature threshold is less than the first specified value, if it is determined that an absolute value of a difference between fan rotational speeds of any two adjacent air conditioners is greater than a second specified value, adjust a fan rotational speed of the air conditioner whose fan rotational speed is smaller in the two adjacent air conditioners.
Blower arrangement comprising - an electric motor with motor shaft - an impeller driven by the motor shaft, arranged in a housing - at least one shaft bearing - a shaft sealing arrangement, having the shape of a pot - wherein the at least one shaft bearing is inserted into the shaft sealing arrangement, which has a sealing opening for the passage of the motor shaft - wherein the shaft sealing arrangement forms a radially extending annular bottom region around the sealing opening, having at least one sealing lip toward the sealing opening. - an electric motor with motor shaft - an impeller driven by the motor shaft, arranged in a housing - at least one shaft bearing - a shaft sealing arrangement, having the shape of a pot - wherein the at least one shaft bearing is inserted into the shaft sealing arrangement, which has a sealing opening for the passage of the motor shaft - wherein the shaft sealing arrangement forms a radially extending annular bottom region around the sealing opening, having at least one sealing lip toward the sealing opening.
A method of communication for a machine type communication, MTC, device, the method comprising: receiving a first MTC data at the MTC device (204a-d) via a system information block, SIB, message; appending a second MTC data to an attach message at the MTC device (204a-d) in response to the SIB message; and sending the attach message with the appended second MTC data from the MTC device (204a-d), the appended second MTC data including MTC capability information of the MTC device (204a-d). receiving a first MTC data at the MTC device (204a-d) via a system information block, SIB, message; appending a second MTC data to an attach message at the MTC device (204a-d) in response to the SIB message; and sending the attach message with the appended second MTC data from the MTC device (204a-d), the appended second MTC data including MTC capability information of the MTC device (204a-d).
A method of controlling pixels of at least one spatial light modulator, the spatial light modulator having a matrix of pixels, each pixel being individually controllable, the method comprising the following steps: a) receiving at least one image,; b) defining at least one image segment within the image,; c) assigning at least one gray scale value to each image segment,; d) assigning at least one pixel of the matrix of pixels to each image segment,; e) assigning a unique modulation frequency to each gray scale value assigned to the at least one image segment,; f) controlling the at least one pixel of the matrix of pixels assigned to the at least one image segment with the unique modulation frequency assigned to the respective image segment,. a) receiving at least one image,; b) defining at least one image segment within the image,; c) assigning at least one gray scale value to each image segment,; d) assigning at least one pixel of the matrix of pixels to each image segment,; e) assigning a unique modulation frequency to each gray scale value assigned to the at least one image segment,; f) controlling the at least one pixel of the matrix of pixels assigned to the at least one image segment with the unique modulation frequency assigned to the respective image segment,.
An isolated double stranded ribonucleic acid (dsRNA) comprising first and second nucleic acid strands and a duplex region of at least 25 base pairs, wherein said second strand of said dsRNA comprises 1-5 single-stranded nucleotides at its 3' terminus, wherein said second oligonucleotide strand is sufficiently complementary to SEQ ID NO: 161 along at least 19 nucleotides and at most 35 nucleotides of said second oligonucleotide strand length to reduce KRAS target gene expression when said double stranded nucleic acid is introduced into a mammalian cell.
An apparatus for manufacturing hydrogen containing water, the apparatus comprising: housing having first receiving space formed therein; cylinder detachably coupled to a top end of the housing to form second receiving space, the second receiving space bordering with a top surface of the housing; connecting passage penetrating a top wall of the housing to interconnect the first receiving space and the second receiving space; ion exchange membrane closing the connecting passage; electrolysis part comprising an anode and a cathode, the anode being disposed in the first receiving space and the cathode being disposed in the second receiving space; exhaust pipe vertically penetrating a bottom wall of the housing to interconnect the first receiving space and an external space; first waterproof membrane closing the exhaust pipe and inhibiting water from being discharged while allowing gas to be discharged, water inlet duct vertically penetrating the top wall of the housing to interconnect the first receiving space and the second receiving space; and second cap being detachably coupled to a top end of the water inlet duct, wherein the top end of the water inlet duct is positioned higher than the ion exchange membrane such that gas capture space is formed in an upper portion of the water inlet duct, gas generated in the first receiving space being captured in the gas capture space, wherein the exhaust pipe is extended to the gas capture space, wherein a top end of the exhaust pipe is positioned higher than the ion exchange membrane and lower than a bottom surface of the second cap. housing having first receiving space formed therein; cylinder detachably coupled to a top end of the housing to form second receiving space, the second receiving space bordering with a top surface of the housing; connecting passage penetrating a top wall of the housing to interconnect the first receiving space and the second receiving space; ion exchange membrane closing the connecting passage; electrolysis part comprising an anode and a cathode, the anode being disposed in the first receiving space and the cathode being disposed in the second receiving space; exhaust pipe vertically penetrating a bottom wall of the housing to interconnect the first receiving space and an external space; first waterproof membrane closing the exhaust pipe and inhibiting water from being discharged while allowing gas to be discharged, water inlet duct vertically penetrating the top wall of the housing to interconnect the first receiving space and the second receiving space; and second cap being detachably coupled to a top end of the water inlet duct, wherein the top end of the water inlet duct is positioned higher than the ion exchange membrane such that gas capture space is formed in an upper portion of the water inlet duct, gas generated in the first receiving space being captured in the gas capture space, wherein the exhaust pipe is extended to the gas capture space, wherein a top end of the exhaust pipe is positioned higher than the ion exchange membrane and lower than a bottom surface of the second cap.
A fixing and/or reinforcing part for an anchoring means of a safety belt to the quarter of a vehicle, the part forming a plate having a main direction with two opposite main ends and including an opening intended to be passed through by the anchoring means, one of the main ends of the plate forms a shoulder with a preferably generally planar attachment edge, such that the part can be superimposed on a lining of the quarter by having its attachment edge in a junction recess of the lining with a corresponding sheet of the outer body, characterized in that it includes first stiffening means at the level of the opening and second stiffening means, said second stiffening means extending at least substantially along the main direction between the opening and the shoulder, said means preferably including at least one boss, more preferably at least one stamped part.
A method of operating a fire protection system, the fire protection system comprising one or more fire protection components, the method comprising: a fire protection component of the one or more fire protection components of the fire protection system generating a message indicating an event associated with the fire protection system; the method characterised by: determining a type of the message by determining whether the message is indicative of an Alarm, PreAlarm, Fault, Quiescent, Disabled, or Offline event; determining that the message is indicative of a critical event when it is determined that the message is indicative of an Alarm, or PreAlarm event; and determining that the message is indicative of a non-critical event when it is determined that the message is indicative of a Fault, Quiescent, Disabled, or Offline event; when it is determined that the message is indicative of a critical event, storing data associated with the message in a first collection of event data; and when it is determined that the message is indicative of a non-critical event, storing data associated with the message in a second different collection of event data. determining a type of the message by determining whether the message is indicative of an Alarm, PreAlarm, Fault, Quiescent, Disabled, or Offline event; determining that the message is indicative of a critical event when it is determined that the message is indicative of an Alarm, or PreAlarm event; and determining that the message is indicative of a non-critical event when it is determined that the message is indicative of a Fault, Quiescent, Disabled, or Offline event; when it is determined that the message is indicative of a critical event, storing data associated with the message in a first collection of event data; and when it is determined that the message is indicative of a non-critical event, storing data associated with the message in a second different collection of event data.