mhurhangee/ep-ind-claims huggingface dataset:
Electrolysis product gas generator for producing a product gas containing hydrogen gas and oxygen gas on the basis of electrolysis of an aqueous electrolyte, said product gas generator comprising a tank having an electrolyte inlet and a product gas exhaust, and a power supply, wherein a row of multiple cell stacks (11a; 11b; 11c) is provided in said tank, each cell stack being composed of vertically arranged plate members, including in succession: - an isolator/ conductor plate member; - a first reactor plate member; - a spacer plate member; - a second reactor plate member; wherein the isolator/conductor plate member has an isolator plate with a window or edge notch in which a conductive patch is arranged at a location so as to be in contact with the adjacent first reactor plate member of the cell stack and with the adjacent second reactor plate member of an adjacent cell stack, wherein the first and second reactor plate members (22; 24) each have an isolating frame surrounding a window and a metal reactor plate (22c 24c) arranged in said window, wherein the spacer plate member has an isolating frame defining a pocket in said spacer plate member, wherein the pocket is filled with aqueous electrolyte so that the electrolyte is in contact with the adjacent first and second metal reactor plates of the cell stack, the pocket being in communication with the electrolyte inlet of the tank, wherein each plate member (21, 22, 23, 24) has a top edge and a bottom edge, wherein each spacer plate member further comprises a bottom edge electrolyte channel extending along said bottom edge and distinct from said pocket, said bottom edge electrolyte channel being in communication with the electrolyte inlet of the tank, wherein the first reactor plate member has a cut-out or edge notch in a lower region of the isolating frame thereof embodied to define an electrolyte inlet flue interconnecting the bottom edge electrolyte channel and the pocket in the adjacent spacer plate member, wherein the isolator plate member has in a lower corner region thereof a cut-out or edge notch remote from the window or edge notch in which a conductive patch is arranged, and wherein the first and second reactor plate members of the same cell stack also each have in the lower region thereof a cut-out or edge notch in the isolating frame thereof, which cut-outs or edge notches in the lower region are all aligned with one another and are in communication with the bottom edge electrolyte channel to form an electrolyte duct to said electrolyte inlet of said tank. - an isolator/ conductor plate member; - a first reactor plate member; - a spacer plate member; - a second reactor plate member;
A cathode catalyst layer for a fuel cell, comprising a catalyst and an electrolyte, wherein the catalyst comprises: a support; and alloy particles including platinum and cobalt supported on the support; wherein the catalyst includes mesopores having a radius of 1 to 10 nm originated from the support, the pore radius of the mesopores denoting the radius of the pores measured by a nitrogen adsorption method, DH method; wherein a mode radius of the mesopores after supporting of the alloy particles is in a range of 5 to 10 nm, the mode radius of the mesopores denoting a pore radius taking a peak value, being a maximum frequency, in a differential pore distribution curve obtained by the nitrogen adsorption method, DH method; wherein a compounding ratio of the platinum and the cobalt is in a range of 4: 1 to 1: 1 expressed in molar ratio; and wherein the alloy particles have a catalyst function, and at least a portion of the alloy particles is supported inside the mesopores. a support; and alloy particles including platinum and cobalt supported on the support; wherein the catalyst includes mesopores having a radius of 1 to 10 nm originated from the support, the pore radius of the mesopores denoting the radius of the pores measured by a nitrogen adsorption method, DH method; wherein a mode radius of the mesopores after supporting of the alloy particles is in a range of 5 to 10 nm, the mode radius of the mesopores denoting a pore radius taking a peak value, being a maximum frequency, in a differential pore distribution curve obtained by the nitrogen adsorption method, DH method; wherein a compounding ratio of the platinum and the cobalt is in a range of 4: 1 to 1: 1 expressed in molar ratio; and wherein the alloy particles have a catalyst function, and at least a portion of the alloy particles is supported inside the mesopores.
Abrasive grain having not more than three faces (11, 12, 13), characterized in that the abrasive grain contains at least one edge (5, 6, 7, 8, 9) having a corner (1, 2, 3, 4) at at least one end.
Industrial truck, in particular electrically operated industrial truck, having a lateral frame opening for accommodating a power-supply unit, in particular a traction battery, and having a flap, which is provided for covering the frame opening and can be moved between a closed position and an open position by means of a multiple-joint hinge, in particular a four-joint hinge, wherein the multiple-joint hinge has a first bracket and a second bracket, wherein the first bracket is mounted for pivoting action on a first fixed-location axis of rotation and on a first alterable-location joint axis, and the second bracket is mounted for pivoting action on a second fixed-location axis of rotation and on a second alterable-location joint axis, characterized in that the multiple-joint hinge is provided with a frictional-force-generating damping device, which keeps the flap in the open position, wherein the frictional-force-generating damping device has at least one frictional contact (21a; 21b; 21c; 21d), which is formed between one of the two brackets (16; 17) of the multiple-joint hinge and a vehicle-mounted component, wherein one of the two brackets (16; 17) is formed, in the region of the fixed-location axis of rotation (D1; D2), from at least two mutually parallel and spaced-apart bracket portions (16c, 16d), wherein a respective frictional contact (21a, 21b, 21c, 21d) is formed on the upper side and on the underside of each bracket portion (16c, 16d), and wherein the vehicle-mounted component, in the region of the fixed-location axis of rotation (D1; D2), is formed from at least three mutually parallel and spaced-apart component portions (22d, 22e, 22f) between which the portions (16c, 16d) of the bracket are arranged, wherein a first portion of the vehicle-mounted component is arranged on the upper side of the first portion of the bracket and forms the frictional contact, which is formed on the upper side of the first portion of the bracket, a second portion of the vehicle-mounted component is arranged between the underside of the first portion of the bracket and the upper side of the second portion of the bracket and forms the frictional contact, which is formed on the underside of the first portion of the bracket, and the frictional contact, which is formed on the upper side of the second portion of the bracket, and a third portion of the vehicle-mounted component is arranged on the underside of the second portion of the bracket and forms the frictional contact, which is formed on the underside of the second portion of the bracket.
A system for transforming rotating motion into linear motion comprising: a first link; a second link coupled to the first link and coupled to a means for receiving linear motion; an arm coupled to the second link, the arm coupled to a means for producing rotating motion; and characterized in that the system comprising a first gear to which a first link is coupled; a second gear coupled to the first gear and to a third gear; once rotation has started with the means for producing rotating motion, the third gear being stationary while the first and second gears rotate around the third gear and while the first link pivots and translates through space with the first gear, the second link driving the means for receiving linear motion while receiving stabilizing supporting forces from the first link. a first link; a second link coupled to the first link and coupled to a means for receiving linear motion; an arm coupled to the second link, the arm coupled to a means for producing rotating motion; and characterized in that the system comprising a first gear to which a first link is coupled; a second gear coupled to the first gear and to a third gear; once rotation has started with the means for producing rotating motion, the third gear being stationary while the first and second gears rotate around the third gear and while the first link pivots and translates through space with the first gear, the second link driving the means for receiving linear motion while receiving stabilizing supporting forces from the first link.
A gas turbine engine assembly comprising: a core section including a compressor section, a combustor section and a turbine section; a low spool supporting a low pressure turbine within the turbine section; a geared turbofan section including a gearbox driven by the low spool; and a high spool supporting a high pressure compressor within the compressor section and a high pressure turbine within the turbine section, characterised in that: the low spool is supported for rotation about an axis at a forward most position by a forward roller bearing and at an aft position by a thrust bearing, wherein the forward position of the roller bearing is aft of the gearbox and forward of the high pressure compressor. a core section including a compressor section, a combustor section and a turbine section; a low spool supporting a low pressure turbine within the turbine section; a geared turbofan section including a gearbox driven by the low spool; and a high spool supporting a high pressure compressor within the compressor section and a high pressure turbine within the turbine section, characterised in that: the low spool is supported for rotation about an axis at a forward most position by a forward roller bearing and at an aft position by a thrust bearing, wherein the forward position of the roller bearing is aft of the gearbox and forward of the high pressure compressor.
Removable platform escapement assembly for a timepiece movement, including an escapement bridge, a balance cock, a pallet lever arranged to control an escape wheel in cooperation with a balance, said escapement bridge carrying a bottom balance bearing for guiding a bottom pallet lever pivot of said pallet lever, and said balance cock carrying a top pallet lever bearing for guiding a top pallet lever pivot of said pallet lever, wherein an arm of said pallet lever carries a banking pin which can move in a hole comprised in said balance cock, to limit the pivoting of said pallet lever, said platform escapement assembly still including an oscillator or a sprung balance assembly, in turn comprising at least one balance spring and at least one said balance fitted with a roller, and a said escape wheel controlled by said pallet lever, said escapement bridge comprising, on both sides of a bottom surface fitted with guide bearings, first and second spacers respectively comprising first and second bearing surfaces for receiving first and second complementary surfaces comprised in said balance cock on both sides of a top surface fitted with guide bearings, said balance cock being positioned relative to said escapement bridge by first and second positioning means, respectively arranged on said first and second bearing surfaces, said top surface of said balance cock being more flexible in bending than said bottom surface of said escapement bridge, so as to allow mobility, as a result of a force applied at least perpendicularly to said top surface, of said first complementary surface relative to said first bearing surface when said second complementary surface is held locked in position on said second bearing surface, or vice versa.
A motor vehicle (1, 68), comprising wheels (3, 69) and a device for determining a wheel contact force for each wheel (3, 69) of the motor vehicle (1, 68) and at least one suspension device (5, 6) for suspending loads to be moved and/or for coupling a trailer device, characterised in that the motor vehicle (1, 68) - comprises at least one measuring device (7, 10, 13) arranged at an action point for measuring at least one force variable which describes the direction and magnitude of an action force currently acting on the motor vehicle (1, 68) at the action point, modified with respect to an initial state, the measurement device being arranged for measuring the action forces acting on at least one bearing point of the suspension device (5, 6), and - a control device designed to calculate the wheel contact force from the at least one force variable, the point of action and characteristic data of the motor vehicle (1, 68) that describe at least the weight and the geometric structure of the motor vehicle (1, 68). - comprises at least one measuring device (7, 10, 13) arranged at an action point for measuring at least one force variable which describes the direction and magnitude of an action force currently acting on the motor vehicle (1, 68) at the action point, modified with respect to an initial state, the measurement device being arranged for measuring the action forces acting on at least one bearing point of the suspension device (5, 6), and - a control device designed to calculate the wheel contact force from the at least one force variable, the point of action and characteristic data of the motor vehicle (1, 68) that describe at least the weight and the geometric structure of the motor vehicle (1, 68).
A hydrogel suitable for soft tissue augmentation, the hydrogel comprising at least one cross-linked biocompatible polymer having zero-length cross-linked moieties; wherein the at least one cross-linked biocompatible polymer is selected from cross-linked hyaluronic acid and a cross-linked hyaluronic acid salt.
A method for ranging between a target welt and a ranging well, the method comprising: generating a clock signal with a first frequency; generating a ranging signal from the clock signal having the first frequency; generating a reference signal from the clock signal having a second frequency; launching the ranging signal from the target well; transmitting the reference signal into a geological formation above the target well and the ranging well; receiving the reference signal with a first receiver in the form of magnetic or electric field values or changes in the magnetic or electric fields in the ranging well; reconstructing the received reference signal as a reconstructed reference signal, the reconstructed reference signal being based on the clock signal; using one of the first receiver or a second receiver in the ranging well configured to receive signals in the form of magnetic or electric field values or changes in the magnetic or electric fields, receiving a signal that is a combination of noise and of the ranging signal launched from the target well; producing a filtered ranging signal using the reconstructed reference signal in combination with the received signal; and determining a relative location of the target well in relation to the ranging well based on the filtered ranging signal, wherein the reference signal has a lower frequency than the ranging signal. generating a clock signal with a first frequency; generating a ranging signal from the clock signal having the first frequency; generating a reference signal from the clock signal having a second frequency; launching the ranging signal from the target well; transmitting the reference signal into a geological formation above the target well and the ranging well; receiving the reference signal with a first receiver in the form of magnetic or electric field values or changes in the magnetic or electric fields in the ranging well; reconstructing the received reference signal as a reconstructed reference signal, the reconstructed reference signal being based on the clock signal; using one of the first receiver or a second receiver in the ranging well configured to receive signals in the form of magnetic or electric field values or changes in the magnetic or electric fields, receiving a signal that is a combination of noise and of the ranging signal launched from the target well; producing a filtered ranging signal using the reconstructed reference signal in combination with the received signal; and determining a relative location of the target well in relation to the ranging well based on the filtered ranging signal, wherein the reference signal has a lower frequency than the ranging signal.
An apparatus comprising: a light detector; a light source, laterally offset from the light detector by a first lateral offset, d, in a first direction, defined from the light detector to the light source; diffraction optics configured to receive light emitted by the light source and output the received light, wherein the diffraction optics are configured to output the received light by diffracting the received light, wherein a majority of the light output is directed towards an offset region laterally offset from the light detector by at least a second lateral offset, D, in the first direction, wherein the second lateral offset, D, is greater than the first lateral offset, and overlaps and extends beyond the first lateral offset, wherein the diffraction optics has a first side towards the light source and a second side towards the offset region, wherein the first side comprises a light in-coupling region, the light in-coupling region being provided by a diffractive structure, and the second side comprises a light out coupling region, the light out-coupling region being provided by a diffractive structure, and wherein the light in-coupling region is configured to in-couple the received light at a first angle from a normal to the light in-coupling region and the light out-coupling region is configured to out-couple the light at a second angle (θ) from a normal to the out-coupling region, towards the offset region, and wherein the second angle (θ) is greater than the first angle, and wherein the light detector is configured to detect the light reflected from the offset region. a light detector; a light source, laterally offset from the light detector by a first lateral offset, d, in a first direction, defined from the light detector to the light source; diffraction optics configured to receive light emitted by the light source and output the received light, wherein the diffraction optics are configured to output the received light by diffracting the received light, wherein a majority of the light output is directed towards an offset region laterally offset from the light detector by at least a second lateral offset, D, in the first direction, wherein the second lateral offset, D, is greater than the first lateral offset, and overlaps and extends beyond the first lateral offset, wherein the diffraction optics has a first side towards the light source and a second side towards the offset region, wherein the first side comprises a light in-coupling region, the light in-coupling region being provided by a diffractive structure, and the second side comprises a light out coupling region, the light out-coupling region being provided by a diffractive structure, and wherein the light in-coupling region is configured to in-couple the received light at a first angle from a normal to the light in-coupling region and the light out-coupling region is configured to out-couple the light at a second angle (θ) from a normal to the out-coupling region, towards the offset region, and wherein the second angle (θ) is greater than the first angle, and wherein the light detector is configured to detect the light reflected from the offset region.
Flush toilet equipment, comprising: a bowl (50, 60, 70); a flush mechanism (53, 63, 73) that supplies flush water to the bowl through a flush water passage (532, 632, 732); and a minute bubble generator (54, 64, 74); characterized in that the minute bubble generator (54, 64, 74) generates minute bubbles and bubbles of millimeter order, mixed with the flush water, the minute bubbles being 0.1-1000 μm in bubble diameter, diameters of said bubbles of millimeter order being larger diameters than the minute bubbles, the flush toilet equipment further comprises a bubble diameter controller (58, 68, 78) that controls the minute bubble generator to adjust diameters of bubbles included in the flush water, wherein the bowl drains water in case of toilet flush and puts therein water from the mechanism after the toilet flush, wherein the bubble diameter controller (58, 68, 78) controls the minute bubble generator so that diameters of bubbles included in the flush water are said bubbles of millimeter order in case of the toilet flush; and also controls the minute bubble generator so that the bubbles included in the flush water are minute bubbles in case the bowl collects the water from the mechanism after the toilet flush, and the minute bubble generator includes a sudden pressure change part (545, 645, 745) that generates the minute bubbles by suddenly changing the pressure of water that is water from a water supply line and includes gas from another line. a bowl (50, 60, 70); a flush mechanism (53, 63, 73) that supplies flush water to the bowl through a flush water passage (532, 632, 732); and a minute bubble generator (54, 64, 74); the minute bubble generator (54, 64, 74) generates minute bubbles and bubbles of millimeter order, mixed with the flush water, the minute bubbles being 0.1-1000 μm in bubble diameter, diameters of said bubbles of millimeter order being larger diameters than the minute bubbles,
Apparatus for the automatic removal of flat products stacked against one another, and preferably pre-folded folded products such as packing slips, patient information sheets, booklets or outserts, or blanks for folded boxes which are in a flat state, from outer packaging (2, 6) which is open at the top and in particular from a tray, there being provided a drum, rotatable on a horizontal longitudinal axis, which has, distributed around its circumference, four mutually identical chambers which are arranged with a 90° offset from one another, which are recessed radially, and which are of a size such that they are each able to receive a tray containing products stacked against one another, characterised in that the drum can be rotated in such a way that the first chamber is positioned in a 12 o'clock position in which a receiving opening, for the insertion of a tray containing products which are stacked against one another in the direction defined by the longitudinal axis, is directed upwards while, at the same time, the second chamber is positioned in a 9 o'clock position which is a neutral position, the third chamber is positioned in a 6 o'clock position which is a position for removal from overhead in which an opening is directed downwards, for the removal of the products stacked against one another from the third chamber under the prompting of gravity and, if required, a shaking movement and, finally, the fourth chamber is positioned in a 3 o'clock position which is a disposal position for the removal of the empty tray, and in that there is provided below the drum, following on from the third chamber when positioned in its position for removal, a transporting means (8; 10) to be loaded with the stack of products which has moved out of the opening of the third chamber in this position and to feed them onwards and away from the drum in a horizontal direction.
A use of ionized fragments of cancer-specific volatile organic compounds in exhaled breath gas for a diagnosis of breast cancer or thyroid cancer, wherein the Volatile Organic Compounds are selected from the group consisting of perfluorodecanoic acid, perfluoro-n-pentanoic acid, perfluorononanoic acid, perfluorooctanoic acid, perfluoro-1-heptene, perfluorocyclohexane, 1H,1H-perfluoro-1-heptanol octafluorocyclobutane, perfluoro(methylcyclohexane), and mixtures thereof.