mhurhangee/ep-ind-claims huggingface dataset:
A vacuum degassing apparatus for molten glass, comprising: a vacuum housing, the interior of which is vacuumed; a vacuum vessel disposed in the vacuum housing for introducing molten glass thereinto; an introduction pipe and a discharge pipe disposed in the vacuum housing and assembled by a plurality of bricks, the introduction pipe and discharge pipe being respectively disposed upstream and downstream the vacuum vessel for introducing and discharging the molten glass, the introduction pipe and the discharge pipe being connected to the vacuum vessel; and an extension pipe connected to at least one of an upstream end of the introduction pipe and a downstream end of the discharge pipe and made of heat-resisting metal; the extension pipe including a base end portion formed on one end close to the vacuum vessel, a body portion formed so as to be continuous to the base end portion, and a sealing flange extending from an outer peripheral side of the body portion and mounted so as to cover through holes from an outer side of an outer wall for the vacuum housing, the sealing flange being positioned at at least one of the introduction pipe and the discharge pipe; and the extension pipe being detachably fixed to the outer side of the outer wall through a fixing structure disposed on an outer peripheral portion of the sealing flange at a position where the base end portion is received in an end brick constituting an opening on the upstream end of the introduction pipe or the downstream end of the discharge pipe. a vacuum housing, the interior of which is vacuumed; a vacuum vessel disposed in the vacuum housing for introducing molten glass thereinto; an introduction pipe and a discharge pipe disposed in the vacuum housing and assembled by a plurality of bricks, the introduction pipe and discharge pipe being respectively disposed upstream and downstream the vacuum vessel for introducing and discharging the molten glass, the introduction pipe and the discharge pipe being connected to the vacuum vessel; and an extension pipe connected to at least one of an upstream end of the introduction pipe and a downstream end of the discharge pipe and made of heat-resisting metal; the extension pipe including a base end portion formed on one end close to the vacuum vessel, a body portion formed so as to be continuous to the base end portion, and a sealing flange extending from an outer peripheral side of the body portion and mounted so as to cover through holes from an outer side of an outer wall for the vacuum housing, the sealing flange being positioned at at least one of the introduction pipe and the discharge pipe; and the extension pipe being detachably fixed to the outer side of the outer wall through a fixing structure disposed on an outer peripheral portion of the sealing flange at a position where the base end portion is received in an end brick constituting an opening on the upstream end of the introduction pipe or the downstream end of the discharge pipe.
Method for producing 1,3- and/or 1,4-xylylene diisocyanate by phosgenation of 1,3- and/or 1,4-xylylenediamine with phosgene in the gas phase, characterized in that the xylylenediamine/xylylenediamines, with addition of stabilizers and/or an inert gas, a) is/are vaporized at < 1000 mbar, with b) the mean residence time in the vaporizer circuit being 5 to 90 minutes and c) the temperature in the pumping circuit of the vaporization being 40 to 190°C, and d) the XDA vapors, heated by a further 10-100°K above the vaporization temperature of the XDA under the prevailing pressure, are reacted with phosgene by known methods of gas-phase phosgenation. a) is/are vaporized at < 1000 mbar, with b) the mean residence time in the vaporizer circuit being 5 to 90 minutes and c) the temperature in the pumping circuit of the vaporization being 40 to 190°C, and d) the XDA vapors, heated by a further 10-100°K above the vaporization temperature of the XDA under the prevailing pressure, are reacted with phosgene by known methods of gas-phase phosgenation.
Wearable device (2; 42) incorporating a temperature measurement device arranged to measure the ambient temperature, this measurement device comprising an infrared sensor, a control circuit for the infrared sensor and a circuit for processing measurement signals supplied by the infrared sensor, the infrared sensor being arranged to be able to receive, in an ambient temperature measurement mode, an infrared radiation from outside this wearable device; characterised in that, in said ambient temperature measurement mode, the control circuit is arranged to be able to activate the infrared sensor several times so that it can supply a plurality of measurement signals over a certain period of time; in that in this ambient temperature measurement mode, the processing circuit is arranged to supply temperature values corresponding to at least a portion of said plurality of measurement signals and to take a mean for these temperature values to obtain an average temperature value that is considered to be representative of the ambient temperature; in that the wearable device comprises an inclinometer, which is arranged to measure an angle between a terrestrial reference direction and an orientation direction of said infrared sensor; and in that, in said ambient temperature measurement mode, either said control circuit is arranged to activate the infrared sensor only when said measured orientation direction is located in an certain angular space, or said processing circuit is arranged to exclude a measurement signal received from the infrared sensor when said measured orientation direction is located outside said angular space.
A solar collector comprising - a plurality of evacuated tubes for the production of thermal energy, the tubes being arranged parallel to a main longitudinal direction (X-X), - a support frame for said tubes, - a plurality of glazing sheets, each associated with a tube and adapted to cover an outer side wall of said tube to prevent the solar irradiation thereof, the glazing sheets being at least partially counter-shaped in relation to said outer side wall of the tube, - movement means of said glazing sheets so as to selectively move the glazing sheets from an active configuration, in which the glazing sheets overlap the outer side wall of the tubes to prevent the irradiation thereof, to a passive configuration, in which the glazing sheets are arranged in diametrically opposite position to the active configuration, so as to promote the irradiation of the tubes, wherein - the glazing sheets comprise a movement and support end keyed coaxially to a relative tube, the movement and support end being mechanically connected to the actuating means to allow the rotation of the glazing sheets, - wherein each of the glazing sheets is mounted coaxially to a relative tube, characterised in that - each of the glazing sheets is mechanically supported by a relative tube and is arranged overall cantilevered with respect to the movement and support end thereof, wherein the relative tube constitutes the mechanical support of a relative glazing sheet, wherein the relative tube acts as a pivot and a mechanical support for the sheet itself, and wherein each of the glazing sheets has a rigid core having a curved face, counter-shaped and directly facing the outer side wall of the relative tube so as to rotate relative to the tube and rest against said outer side wall. - a plurality of evacuated tubes for the production of thermal energy, the tubes being arranged parallel to a main longitudinal direction (X-X), - a support frame for said tubes, - a plurality of glazing sheets, each associated with a tube and adapted to cover an outer side wall of said tube to prevent the solar irradiation thereof, the glazing sheets being at least partially counter-shaped in relation to said outer side wall of the tube, - movement means of said glazing sheets so as to selectively move the glazing sheets from an active configuration, in which the glazing sheets overlap the outer side wall of the tubes to prevent the irradiation thereof, to a passive configuration, in which the glazing sheets are arranged in diametrically opposite position to the active configuration, so as to promote the irradiation of the tubes, wherein - the glazing sheets comprise a movement and support end keyed coaxially to a relative tube, the movement and support end being mechanically connected to the actuating means to allow the rotation of the glazing sheets, - wherein each of the glazing sheets is mounted coaxially to a relative tube, characterised in that - each of the glazing sheets is mechanically supported by a relative tube and is arranged overall cantilevered with respect to the movement and support end thereof, wherein the relative tube constitutes the mechanical support of a relative glazing sheet,
(a) A polypeptide comprising an amino acid sequence which is at least 80% identical to the sequence set forth from amino acid 8 to amino acid 41 of SEQ ID NO:1; or (b) an antibody directed against the sequence of amino acids 8 to 41 or amino acids 1 to 51 of SEQ ID NO:1 comprised in a polypeptide wherein the antibody is an antagonistic monoclonal antibody for use as a medicament. (a) A polypeptide comprising an amino acid sequence which is at least 80% identical to the sequence set forth from amino acid 8 to amino acid 41 of SEQ ID NO:1; or (b) an antibody directed against the sequence of amino acids 8 to 41 or amino acids 1 to 51 of SEQ ID NO:1 comprised in a polypeptide wherein the antibody is an antagonistic monoclonal antibody for use as a medicament.
Adjusting device for adjusting a yaw position of a nacelle of a wind turbine, comprising a circumferential holed flange provided with drilled holes, and at least one adjusting means, having - a gripping portion for gripping on the holed flange, - a fastening portion for fastening to an anchorage point of the wind turbine, and - a linear drive for exerting a linear movement between the gripping portion and the fastening portion, wherein the holed flange is fixedly connected to the nacelle, and the anchorage point is fixedly connected to stationary part of the wind turbine or vice versa, and the nacelle is mounted so as to be rotatable relative to this stationary part of the wind turbine, such that the holed flange and the anchorage point can also execute a rotational movement relative to each other, such that a linear movement exerted between the gripping portion and the fastening portion by the linear drive effects a rotational movement between the holed flange and the anchorage point, and thereby effects a yaw adjustment of the nacelle, characterized in that the gripping portion has at least one movable fixing pin for engaging in respectively one of the drilled holes of the holed flange, in order thereby to fix the gripping portion to the holed flange in a releasable manner. - a gripping portion for gripping on the holed flange, - a fastening portion for fastening to an anchorage point of the wind turbine, and - a linear drive for exerting a linear movement between the gripping portion and the fastening portion, wherein
An inching system for controlling the speed of a loading vehicle having ground engaging devices, a hydrostatic transmission and an engine, the engine drives a hydraulic pump that supplies hydraulic fluid within the hydrostatic transmission, the hydrostatic transmission provides rotational power to the ground engaging devices, the hydrostatic transmission having a pilot pressure port with a pressure of hydraulic fluid at the pilot pressure port controlling a level of the rotational power from the hydrostatic transmission, a beginning of draining of the hydraulic fluid from the pilot pressure port defining an inching starting point, the inching system comprising: a brake pedal operable by an operator to activate brakes of the loading vehicle; and an electrohydraulic valve configured to be hydraulically coupled to the pilot pressure port of the hydrostatic transmission, the electrohydraulic valve being configured to drain the hydraulic fluid at the pilot pressure port; characterized in that a sensor (104 or 106) is coupled to the brake pedal to detect an input from the operator, the sensor (104 or 106) being configured to produce a signal indicative of the input from the operator; and a controller being configured to receive the signal and a speed of the engine, the controller being further configured to control the electrohydraulic valve dependent upon the signal and the engine speed so that the inching starting point is unchanged regardless of the speed of the engine. a brake pedal operable by an operator to activate brakes of the loading vehicle; and an electrohydraulic valve configured to be hydraulically coupled to the pilot pressure port of the hydrostatic transmission, the electrohydraulic valve being configured to drain the hydraulic fluid at the pilot pressure port; characterized in that a sensor (104 or 106) is coupled to the brake pedal to detect an input from the operator, the sensor (104 or 106) being configured to produce a signal indicative of the input from the operator; and a controller being configured to receive the signal and a speed of the engine, the controller being further configured to control the electrohydraulic valve dependent upon the signal and the engine speed so that the inching starting point is unchanged regardless of the speed of the engine.
A fluorinated ether compound represented by the following formula: D 1 -R f1 -O-CH 2 -(C m F 2m O) n- A wherein D 1 is CF 3 - or CF 3 -O-; R f1 is a C 1-20 fluoroalkylene group containing at least one hydrogen atom, a C 2-20 fluoroalkylene group containing at least one hydrogen atom and having an etheric oxygen atom between carbon-carbon atoms, a C 1-20 alkylene group, or a C 2-20 alkylene group having an etheric oxygen atom between carbon-carbon atoms; A is a group represented by the following formula; m is an integer of from 1 to 6; and n is an integer of from 1 to 200, provided that when n is 2 or more, (C m F 2m O) n may be made of two or more types of C m F 2m O different in m; -C a F 2a -B-C b,H 2b -SiL c R 3-c wherein B is a single bond, or -C g H 2g O-, -C h H 2h O-C(=O)NH- or-C(=O)-NH-; L is a hydrolysable group; R is a hydrogen atom or a monovalent hydrocarbon group; a is an integer of from 1 to 5; b is an integer of from 1 to 10; c is an integer of from 1 to 3; g is an integer of from 1 to 5; and h is an integer of from 1 to 5.
A method of estimating a motion parameter corresponding to a subject element, the method comprising: acquiring acceleration measurements utilizing a plurality of accelerometers each operable to provide a signal corresponding to an acceleration measurement, at least two of the accelerometers being adapted to measure accelerations in two directions separated by an angle greater than zero degrees; low-pass filter the signals corresponding to the acceleration measurements utilizing a cutoff frequency between about 0.5 Hz and 10 Hz, obtaining an acceleration magnitude, generating a motion parameter metric utilizing the acceleration measurements; and estimating the motion parameter using the motion parameter metric, characterized in that the method further comprises calculating a stride duration of a user using at least one of the acceleration measurements, wherein the step of obtaining the acceleration magnitude is carried out by calculating the acceleration magnitude using the acceleration measurements corresponding to the filtered signals, the step of generating the motion parameter metric utilizing the acceleration measurements is carried out by generating the motion parameter metric utilizing the stride duration and the acceleration magnitude; and the step of estimating the motion parameter is carried out by estimating the motion parameter using the motion parameter metric and a statistical regression model. acquiring acceleration measurements utilizing a plurality of accelerometers each operable to provide a signal corresponding to an acceleration measurement, at least two of the accelerometers being adapted to measure accelerations in two directions separated by an angle greater than zero degrees; low-pass filter the signals corresponding to the acceleration measurements utilizing a cutoff frequency between about 0.5 Hz and 10 Hz, obtaining an acceleration magnitude, generating a motion parameter metric utilizing the acceleration measurements; and estimating the motion parameter using the motion parameter metric, characterized in that the method further comprises calculating a stride duration of a user using at least one of the acceleration measurements, wherein the step of obtaining the acceleration magnitude is carried out by calculating the acceleration magnitude using the acceleration measurements corresponding to the filtered signals, the step of generating the motion parameter metric utilizing the acceleration measurements is carried out by generating the motion parameter metric utilizing the stride duration and the acceleration magnitude; and the step of estimating the motion parameter is carried out by estimating the motion parameter using the motion parameter metric and a statistical regression model.
Biometric sensor module for a chip card, comprising - a dielectric carrier comprising a front face and a back face, both forming main faces of the carrier, - a biometric sensor for detecting fingerprints which is attached to the back face and extends beneath the back face over a detection area located opposite a detection region located on the front face of the carrier, the detection region being configured to receive a finger the fingerprint of which is detected by the sensor, - electrically conductive connection pads, arranged on the back face of the carrier and electrically connected to the biometric sensor, characterized in that at least one connection pad comprises a region that is wettable with a solder material, extending over an area of between 0.2 and 5 square millimetres, and in that the connection pad is placed essentially opposite a region of the front face covered with a bezel, and at least one conductive via is made in the thickness of the carrier, this via electrically connecting the bezel to the connection pad. - a dielectric carrier comprising a front face and a back face, both forming main faces of the carrier, - a biometric sensor for detecting fingerprints which is attached to the back face and extends beneath the back face over a detection area located opposite a detection region located on the front face of the carrier, the detection region being configured to receive a finger the fingerprint of which is detected by the sensor, - electrically conductive connection pads, arranged on the back face of the carrier and electrically connected to the biometric sensor, characterized in that at least one connection pad comprises a region that is wettable with a solder material, extending over an area of between 0.2 and 5 square millimetres, and in that the connection pad is placed essentially opposite a region of the front face covered with a bezel, and at least one conductive via is made in the thickness of the carrier, this via electrically connecting the bezel to the connection pad.
A method, comprising: initiating, by a user equipment, establishment of a discovery context, wherein the initiating comprises transmitting a discovery context establishment indication to a network, and wherein the discovery context establishment indication comprises information about at least one other user that a user of the user equipment is interested in discovering; and receiving at the user equipment a discovery context establishment request from the network, wherein the discovery context establishment request comprises, when discovery context of the at least one other user is available in the network, beacon information for the at least one other user that the user of the user equipment is interested in discovering, wherein, a discovery context update is carried on a discovery update channel, DUCH, and; the method further comprising: using, by the user equipment, a same discontinuous reception, DRX, cycle for monitoring paging and the discovery context update, wherein receipt of the discovery update at the user equipment in an idle state is linked with a paging occasion of the user equipment. initiating, by a user equipment, establishment of a discovery context, wherein the initiating comprises transmitting a discovery context establishment indication to a network, and wherein the discovery context establishment indication comprises information about at least one other user that a user of the user equipment is interested in discovering; and receiving at the user equipment a discovery context establishment request from the network, wherein the discovery context establishment request comprises, when discovery context of the at least one other user is available in the network, beacon information for the at least one other user that the user of the user equipment is interested in discovering, wherein, a discovery context update is carried on a discovery update channel, DUCH, and; the method further comprising: using, by the user equipment, a same discontinuous reception, DRX, cycle for monitoring paging and the discovery context update, wherein receipt of the discovery update at the user equipment in an idle state is linked with a paging occasion of the user equipment.
A translucent polycrystalline sintered body suitable for the manufacture of an arc tube for a high-intensity discharge lamp, comprising an alumina as a main component, wherein sintered grains forming the translucent polycrystalline sintered body has an average grain diameter of 35 to 70 μm, wherein 5% or more and 15% or less of the sintered grains in the translucent polycrystalline sintered body have a grain diameter equal to or larger than 3/2 of the average grain diameter.
A method comprising: receiving, by a wireless device (1911, 2011, 2411, 2611), one or more configuration parameters indicating a plurality of beam failure detection sets of a cell, wherein the plurality of beam failure detection sets comprise a first beam failure detection set of the cell and a second beam failure detection set of the cell; receiving, based on a first transmission configuration indicator, TCI, state and a second TCI state, one or more first signals via a control resource set, CORESET, wherein for the CORESET, the first TCI state is associated with the first beam failure detection set, and wherein for the CORESET, the second TCI state is associated with the second beam failure detection set; transmitting, based on a beam failure associated with the first beam failure detection set, an uplink signal indicating a candidate reference signal; receiving a response to the uplink signal; and after receiving the response, receiving, based on the candidate reference signal and the second TCI state, one or more second signals via the CORESET. receiving, by a wireless device (1911, 2011, 2411, 2611), one or more configuration parameters indicating a plurality of beam failure detection sets of a cell, wherein the plurality of beam failure detection sets comprise a first beam failure detection set of the cell and a second beam failure detection set of the cell; receiving, based on a first transmission configuration indicator, TCI, state and a second TCI state, one or more first signals via a control resource set, CORESET, wherein for the CORESET, the first TCI state is associated with the first beam failure detection set, and wherein for the CORESET, the second TCI state is associated with the second beam failure detection set; transmitting, based on a beam failure associated with the first beam failure detection set, an uplink signal indicating a candidate reference signal; receiving a response to the uplink signal; and after receiving the response, receiving, based on the candidate reference signal and the second TCI state, one or more second signals via the CORESET.