mhurhangee/ep-ind-claims huggingface dataset:
A method for depositing conductive lines on a substrate comprising: coating a layer of material having a low thermal conductivity over the substrate depositing a film of conductive ink over the layer of material having the low thermal conductivity; and sintering the film of conductive ink, characterised in that the layer of material having a low thermal conductivity has a thickness of at least 2.3 μm. coating a layer of material having a low thermal conductivity over the substrate depositing a film of conductive ink over the layer of material having the low thermal conductivity; and sintering the film of conductive ink, characterised in that the layer of material having a low thermal conductivity has a thickness of at least 2.3 μm.
A low-noise amplification device provided in a communication satellite, comprising: a variable-power attenuation means for generating an attenuation signal by attenuating a reception signal which is a collection of signals received from a plurality of mobile terminals; a low-noise amplification means for generating an amplification signal by amplifying the attenuation signal with low noise; and a signal control means (14A, 14B) for outputting a control signal to the variable-power attenuation means depending on the strength of the reception signal, and then adjusting an attenuation of the variable-power attenuation means. a variable-power attenuation means for generating an attenuation signal by attenuating a reception signal which is a collection of signals received from a plurality of mobile terminals; a low-noise amplification means for generating an amplification signal by amplifying the attenuation signal with low noise; and a signal control means (14A, 14B) for outputting a control signal to the variable-power attenuation means depending on the strength of the reception signal, and then adjusting an attenuation of the variable-power attenuation means.
An apparatus, comprising: an interface; call control logic coupled with the interface; and a hunt list; wherein the call control logic is responsive to receiving a call request for a video call for a plurality of recipients via the interface to employ the hunt list for performing call setup; and wherein the call control logic is operable to establish connections with endpoints associated with the plurality of recipients selected from the plurality of recipients that have video capabilities before establishing connections with endpoints associated with recipients that do not have video capabilities. an interface; call control logic coupled with the interface; and a hunt list; wherein the call control logic is responsive to receiving a call request for a video call for a plurality of recipients via the interface to employ the hunt list for performing call setup; and wherein the call control logic is operable to establish connections with endpoints associated with the plurality of recipients selected from the plurality of recipients that have video capabilities before establishing connections with endpoints associated with recipients that do not have video capabilities.
A voltage converter for providing a DC voltage (Vout) for operating at least one LED line, wherein the converter is designed to: a.) output a DC voltage (Vout) which preferably changes at least once upward and downward within a voltage range above the forward voltage in the LED line while measuring the LED current (iL); and b.) set the operating point of the DC voltage (Vout) depending on said measurement. a.) output a DC voltage (Vout) which preferably changes at least once upward and downward within a voltage range above the forward voltage in the LED line while measuring the LED current (iL); and b.) set the operating point of the DC voltage (Vout) depending on said measurement.
A computer-implemented method comprising: providing an interface engine (112, 458) in communication with a stored document comprising a plurality of available input information types; causing the interface engine (112, 458) to display a single input field (211, 452) on a screen; receiving a first user input to the single input field (211, 452), wherein the first user input comprises text entered into the single input field (211, 452); in response to a second user input to the single input field (211, 452), wherein the second user input comprises opening a dropdown causing the interface engine to display a list of the plurality of available input information types; in response to a third user input to the list, wherein the third user input comprises selecting an appropriate input type for the input,causing the interface engine (112, 458) to enter the selected input information type into the stored document; and in response to the interface engine entering the selected input information type, causing the interface engine to input to store the text in the stored document in a field corresponding to the selected input information type. providing an interface engine (112, 458) in communication with a stored document comprising a plurality of available input information types; causing the interface engine (112, 458) to display a single input field (211, 452) on a screen; receiving a first user input to the single input field (211, 452), wherein the first user input comprises text entered into the single input field (211, 452); in response to a second user input to the single input field (211, 452), wherein the second user input comprises opening a dropdown causing the interface engine to display a list of the plurality of available input information types; in response to a third user input to the list, wherein the third user input comprises selecting an appropriate input type for the input,causing the interface engine (112, 458) to enter the selected input information type into the stored document; and in response to the interface engine entering the selected input information type, causing the interface engine to input to store the text in the stored document in a field corresponding to the selected input information type.
An apparatus (2900; 3100; 3200; 3300; 3402; 3600; 4100; 4200; 4300; 4400; 4500), comprising: a first fiber length (104; 204; 1100; 1200; 1300; 1400; 1406; 1500; 1600) situated to receive an input optical beam, the first fiber length having a first refractive index profile (212; 1102; 1202; 1302; 1402; 1412; 1510; 1602); a fiber shaping surface (2902; 3102; 3202; 3308; 3404; 3504; 3602; 3804; 4002, 4004; 4202; 4304; 4402; 4502) situated so that a section of at least the first fiber length is urged to conform to the fiber shaping surface; a bend controller (2906, 2908; 3106, 3107; 3208; 3304; 3410; 3510; 3610; 3804; 4204; 4406, 4408; 4506) situated to select a length of the section of the first fiber length that is urged to conform to the fiber shaping surface or to select a curvature of the fiber shaping surface to perturb the input optical beam and produce a modified optical beam; and a second fiber length (108; 208; 1700; 1800; 1900; 2000; 2100; 2600; 2700; 2800) coupled to the first fiber length and situated to receive the modified optical beam, the second fiber length having a second refractive index profile (214; 1702; 1802; 1902; 2002; 2102) different from the first refractive index profile and selected to maintain at least one beam characteristic of the modified optical beam, the second refractive index profile defining at least two cores in the second fiber length (108; 208; 1700; 1800; 1900; 2000; 2100; 2600; 2700; 2800). a first fiber length (104; 204; 1100; 1200; 1300; 1400; 1406; 1500; 1600) situated to receive an input optical beam, the first fiber length having a first refractive index profile (212; 1102; 1202; 1302; 1402; 1412; 1510; 1602); a fiber shaping surface (2902; 3102; 3202; 3308; 3404; 3504; 3602; 3804; 4002, 4004; 4202; 4304; 4402; 4502) situated so that a section of at least the first fiber length is urged to conform to the fiber shaping surface; a bend controller (2906, 2908; 3106, 3107; 3208; 3304; 3410; 3510; 3610; 3804; 4204; 4406, 4408; 4506) situated to select a length of the section of the first fiber length that is urged to conform to the fiber shaping surface or to select a curvature of the fiber shaping surface to perturb the input optical beam and produce a modified optical beam; and a second fiber length (108; 208; 1700; 1800; 1900; 2000; 2100; 2600; 2700; 2800) coupled to the first fiber length and situated to receive the modified optical beam, the second fiber length having a second refractive index profile (214; 1702; 1802; 1902; 2002; 2102) different from the first refractive index profile and selected to maintain at least one beam characteristic of the modified optical beam, the second refractive index profile defining at least two cores in the second fiber length (108; 208; 1700; 1800; 1900; 2000; 2100; 2600; 2700; 2800).
A method for adaptation of a frame loss concealment method in audio decoding, the method comprising: - detecting (101, 122) a transient in a previously received and reconstructed audio signal; - modifying (102, 125) the frame loss concealment method by selectively adjusting a spectrum magnitude of a substitution frame spectrum in response to detected transient; - further detecting (101, 121) a burst loss with several consecutive frame losses; and - further modifying (102, 123) the frame loss concealment method by selectively adjusting the spectrum magnitude of the substitution frame spectrum in response to detected burst loss. - detecting (101, 122) a transient in a previously received and reconstructed audio signal; - modifying (102, 125) the frame loss concealment method by selectively adjusting a spectrum magnitude of a substitution frame spectrum in response to detected transient; - further detecting (101, 121) a burst loss with several consecutive frame losses; and - further modifying (102, 123) the frame loss concealment method by selectively adjusting the spectrum magnitude of the substitution frame spectrum in response to detected burst loss.
A clasp for a bracelet comprising at least one set (10; 100) of four arms (20, 21, 30, 31, 200, 201, 300, 301) articulated together so that the clasp can move from a first position, called deployed position, wherein the arms (20, 21, 30, 31, 200, 201, 300,301) are oriented radially towards the outside of the bracelet, to a second position, called closed position, wherein the arms (20, 21, 30, 31, 200, 201, 300, 301) are folded against one another so as to be placed under the bracelet, said set of four articulated arms (20, 21, 30, 31, 200, 201, 300, 301) comprising two compasses (2, 3) formed by two arms joined by an articulation (22, 32, 202, 302), the free end of the arms being able to be pivotally mounted to a first and a second strand (6, 8) of the bracelet, characterised in that said articulation (22, 32, 202, 302) of the compasses (2, 3) has a pivot axis perpendicular to the plane formed by the bracelet.
An actuating drive for a motor vehicle, in particular for a vehicle seat, - comprising an electric motor which drives a drive shaft, - comprising a transmission which has a) a housing, b) a gear wheel that is meshed with the drive shaft and has a rotation axis, and c) a bearing part which is located between the gear wheel and housing, and - comprising a spindle which has a spindle axis running parallel to the rotation axis, runs through an internal thread of the gear wheel and through apertures in the housing, and is in engagement with said internal thread, wherein the housing has a cylinder bore which receives the bearing part and which defines a cylinder axis, the bearing part is delimited by a three-dimensional area that, viewed in the direction of the cylinder axis, has its largest cross-sectional area at a right angle to the cylinder axis at the intersection point of the cylinder axis with the rotation axis, wherein said largest cross-sectional area is a circular area, and wherein the bearing part has two bearing shells, each of which has a bearing opening centred relative to the rotation axis, through which bearing openings the spindle passes and in which bearing openings the gear wheel is mounted rotatably, characterised in that, with increasing distance from the intersection point in both directions along the cylinder axis, the size of the cross-sectional area decreases, in particular decreases continuously, and in that the housing is rigidly connected to the electric motor. - comprising an electric motor which drives a drive shaft, - comprising a transmission which has a) a housing, b) a gear wheel that is meshed with the drive shaft and has a rotation axis, and c) a bearing part which is located between the gear wheel and housing, and - comprising a spindle which has a spindle axis running parallel to the rotation axis, runs through an internal thread of the gear wheel and through apertures in the housing, and is in engagement with said internal thread, wherein the housing has a cylinder bore which receives the bearing part and which defines a cylinder axis, the bearing part is delimited by a three-dimensional area that, viewed in the direction of the cylinder axis, has its largest cross-sectional area at a right angle to the cylinder axis at the intersection point of the cylinder axis with the rotation axis, wherein said largest cross-sectional area is a circular area, and wherein the bearing part has two bearing shells, each of which has a bearing opening centred relative to the rotation axis, through which bearing openings the spindle passes and in which bearing openings the gear wheel is mounted rotatably, characterised in that, with increasing distance from the intersection point in both directions along the cylinder axis, the size of the cross-sectional area decreases, in particular decreases continuously, and in that the housing is rigidly connected to the electric motor.
A method for cleaning a diesel particulate filter having a dirty side directed towards an incoming flow of exhaust and a clean side directed towards an outgoing flow of exhaust, said method comprising the steps of: wet cleaning said filter employing a liquid that removes particulate from said filter, the step of wet cleaning said filter comprising: mounting said clean side of said filter in fluid communication with a first liquid supply conduit; mounting said dirty side of said filter in fluid communication with a second liquid supply conduit; surging a slug of said liquid through said filter alternatingly from said clean and dirty sides of said filter through said first and second liquid supply conduits (84, 86) and wherein the step of surging said slug of said liquid through said filter comprises applying a gas at alternating pressures to opposite sides of said slug of said liquid through said first and second liquid supply conduits (84, 86) and wherein a pressure mechanism alternately applies pressure in opposite directions to at least one end of said slug of liquid; and driving the liquid in a reverse direction from the dirty side to the clean side of said filter with significantly less pressure relative to the pressure in the direction from the clean side to the dirty side of the filter so as to slowly move the liquid back to the outlet side of the filter. mounting said clean side of said filter in fluid communication with a first liquid supply conduit; mounting said dirty side of said filter in fluid communication with a second liquid supply conduit; surging a slug of said liquid through said filter alternatingly from said clean and dirty sides of said filter through said first and second liquid supply conduits (84, 86) and wherein the step of surging said slug of said liquid through said filter comprises applying a gas at alternating pressures to opposite sides of said slug of said liquid through said first and second liquid supply conduits (84, 86) and wherein a pressure mechanism alternately applies pressure in opposite directions to at least one end of said slug of liquid; and driving the liquid in a reverse direction from the dirty side to the clean side of said filter with significantly less pressure relative to the pressure in the direction from the clean side to the dirty side of the filter so as to slowly move the liquid back to the outlet side of the filter.
A solar cell module comprising: a plurality of solar cells, each including; a semiconductor substrate, a plurality of finger electrode lines formed on the semiconductor substrate in a first direction, 6 or more bus bar electrode lines formed to extend in a second direction crossing the plurality of finger electrode lines, and a plurality of pad sections formed on the bus bar electrode lines, each of the plurality of pad sections having a length in the second direction greater than a width of the plurality of finger electrode lines, and a width in the first direction greater than the width of_the bus bar electrode lines, and wherein 6 or more leads electrically connect neighboring two solar cells of the plurality of solar cells, each lead having a core layer and a coating layer, and having a circular cross-section and a first width of 250 to 500 μm wherein the leads are attached to the bus bar electrode lines and the plurality of pad sections, and a lower portion of the leads attached to the plurality of pad sections has a second width greater than the first width. a plurality of solar cells, each including; a semiconductor substrate, a plurality of finger electrode lines formed on the semiconductor substrate in a first direction, 6 or more bus bar electrode lines formed to extend in a second direction crossing the plurality of finger electrode lines, and a plurality of pad sections formed on the bus bar electrode lines, each of the plurality of pad sections having a length in the second direction greater than a width of the plurality of finger electrode lines, and a width in the first direction greater than the width of_the bus bar electrode lines, and a semiconductor substrate, a plurality of finger electrode lines formed on the semiconductor substrate in a first direction, 6 or more bus bar electrode lines formed to extend in a second direction crossing the plurality of finger electrode lines, and a plurality of pad sections formed on the bus bar electrode lines, each of the plurality of pad sections having a length in the second direction greater than a width of the plurality of finger electrode lines, and a width in the first direction greater than the width of_the bus bar electrode lines, and wherein 6 or more leads electrically connect neighboring two solar cells of the plurality of solar cells, each lead having a core layer and a coating layer, and having a circular cross-section and a first width of 250 to 500 μm wherein the leads are attached to the bus bar electrode lines and the plurality of pad sections, and a lower portion of the leads attached to the plurality of pad sections has a second width greater than the first width.
Fibrous structures configured to be hydrogelling, having a basis weight of 20 to 600 g/m 2, two- or three-dimensional, made from fibres from a first fibre raw material, wherein the first fibre raw material contains water-soluble polyvinyl alcohol and/or polyvinyl alcohol copolymer, wherein the hydrogelling configuration of the fibres or the fibrous structure is brought about by heating the fibre raw material at a predetermined anneal temperature which is greater than any glass transition temperature and smaller than any melting temperature or decomposition temperature on the part of the first fibre raw material used, and for a predetermined anneal time, wherein the fibre raw material is crosslinked by the heating and wherein the fibres from the first fibre raw material have a fibre linear density weight of 0.5 to 12 dtex, characterized in that the fibrous structures have an uptake capacity in respect of 0.9% aqueous sodium chloride solution or test solution A according to DIN 13726-1 Point 3.2.2.3, of 4-30 g/g.
Method for preparing an acellular organic tissue of human or animal origin for revitalization, in particular for the introduction of living cells, comprising a step in which said acellular organic tissue (2, fig. 1; 12, figs. 2 and 3) is provided with a plurality of holes (4, fig. 1; 14, fig. 3) made through its surface (8, fig. 1; 18, figs. 2 and 3) and extending towards the inside of the tissue (2, fig. 1; 12; figs. 2 and 3), wherein said plurality of holes (4, fig. 1; 14, fig. 3) is made using one or more needles, characterized in that said holes (4, fig. 1; 14, fig. 3) intersect at least partially thus forming holes (4, fig. 1; 14, fig. 3) that communicate at least partially with each other by making the holes in the tissue using said needle or an array of needles moved and inclined according to a control system managed by an algorithm that guarantees that the holes are formed so as to intersect with a predetermined density, that is, forming a determined number of points where they cross each other.
Fuel filter for an internal combustion engine, in particular of a motor vehicle, - with a filter housing and with an insert, which is inserted into an accommodating container of the filter housing, - wherein the insert has a filter element, which has an annular filter body and a cylindrical coalescer arranged coaxially thereto in the interior of the filter body, - wherein the insert has a cup element which contains a water collecting chamber which is open to the interior of the filter body, - wherein the filter element and the cup element are separately manufactured components, - wherein the filter element and the cup element are fastened to each other, so that the insert can be inserted as a unit into an accommodating container of a filter housing of the fuel filter, characterised in that - the cup element, in a base, contains an outlet opening which can be closed by a closure and which is fluidically connected to the water collecting chamber, - the closure is screwed into a thread of the cup element, - the cup element has, coaxially to the outlet opening, an annular collar, on which, radially on the inside, there is an integrally moulded, continuous circumferential sealing contour lying radially against an inside of the filter housing, - the accommodating container has an annular collar projecting axially inwards, on which the sealing contour is supported radially on the outside, - the closure has a seal, which is supported radially on the inside on the annular collar with respect to the sealing contour. - with a filter housing and with an insert, which is inserted into an accommodating container of the filter housing, - wherein the insert has a filter element, which has an annular filter body and a cylindrical coalescer arranged coaxially thereto in the interior of the filter body, - wherein the insert has a cup element which contains a water collecting chamber which is open to the interior of the filter body, - wherein the filter element and the cup element are separately manufactured components, - wherein the filter element and the cup element are fastened to each other, so that the insert can be inserted as a unit into an accommodating container of a filter housing of the fuel filter, - the cup element, in a base, contains an outlet opening which can be closed by a closure and which is fluidically connected to the water collecting chamber, - the closure is screwed into a thread of the cup element, - the cup element has, coaxially to the outlet opening, an annular collar, on which, radially on the inside, there is an integrally moulded, continuous circumferential sealing contour lying radially against an inside of the filter housing, - the accommodating container has an annular collar projecting axially inwards, on which the sealing contour is supported radially on the outside, - the closure has a seal, which is supported radially on the inside on the annular collar with respect to the sealing contour.