mhurhangee/ep-ind-claims huggingface dataset:
A device for returning an external control of a vehicle gearbox to a neutral position, including: - a first means for returning to said neutral position; - a selection element able to be set in motion for the selection of the reduction ratios of said gearbox in a first selection direction or in a second selection direction opposed to the first; said first means being suitable for exerting a first return force on said element, said first force opposing said first direction; - said returning device including a second means for returning to said neutral position, suitable for exerting a second return force on said element, said second force opposing said second direction; - said first means not exerting a return force opposing said second direction; - said second means not exerting a return force opposing said first direction; - said returning device further including a fixed support and a first stop linked to said element, only one of said first or second returning means (5, 6) resting simultaneously on said support and on said first stop when said first or second force is exerted; and characterized in that it further includes a second stop linked to said element and in that said first and second returning means (5, 6) are configured so as to be resting on either side of said support and of said second stop in said neutral position. - a first means for returning to said neutral position; - a selection element able to be set in motion for the selection of the reduction ratios of said gearbox in a first selection direction or in a second selection direction opposed to the first; - said returning device including a second means for returning to said neutral position, suitable for exerting a second return force on said element, said second force opposing said second direction; - said first means not exerting a return force opposing said second direction; - said second means not exerting a return force opposing said first direction; - said returning device further including a fixed support and a first stop linked to said element, only one of said first or second returning means (5, 6) resting simultaneously on said support and on said first stop when said first or second force is exerted; and
A method for resource allocation and joint transmission in a cellular communication network, the method comprising: allocating a first set of frequency resources for transmitting a first set of time slots of data in a subframe, from a first communication node to a User Equipment, UE; and allocating at least one second set of frequency resources for transmitting, at least one second set of time slots of data in the subframe, from at least one second communication node (230, 240) respectively to the UE, the method being characterized in that: the first set of frequency resources is intersected with one of the at least one second set of frequency resources, and union of the first set of time slots of data and the at least one second set of time slots of data is equal to the subframe. allocating a first set of frequency resources for transmitting a first set of time slots of data in a subframe, from a first communication node to a User Equipment, UE; and allocating at least one second set of frequency resources for transmitting, at least one second set of time slots of data in the subframe, from at least one second communication node (230, 240) respectively to the UE, the method being characterized in that: the first set of frequency resources is intersected with one of the at least one second set of frequency resources, and union of the first set of time slots of data and the at least one second set of time slots of data is equal to the subframe. the first set of frequency resources is intersected with one of the at least one second set of frequency resources, and union of the first set of time slots of data and the at least one second set of time slots of data is equal to the subframe.
A grate bar comprising a substantially closed surface facing a combustion side, a grate bar support adapted to rest on a grate decking shaft, a head portion, and a plurality of cooling fins for air cooling, which project from the bottom of the surface, wherein the head portion comprises at least one flow channel which is subdivided downstream into at least a first and second partial flow channel (32, 34), wherein the first partial flow channel leads towards at least one first outlet opening at the end face of the head portion and the second partial flow channel leads towards at least one second outlet opening, which is spaced apart from the end face, which is opened towards the bottom of the surface, wherein the flow channel is formed at least partially between the inner surface of the end face of the head portion and a portion of a flow air-guiding element, which is arranged spaced apart therefrom, characterized in that the first outlet opening is formed through a gap between a portion of the end face and a leading edge portion of the surface.
A piezoresistive transducer, comprising: a substrate (94, 151) having a mechanical structure that is subject to an applied force; and a bridge circuit formed at least in part on the mechanical structure, the bridge circuit including a first half and a second half, characterized in that the first half of the bridge circuit comprises a first junction field-effect transistor, JFET, and a first piezoresistor coupled in series, and the second half of the bridge circuit comprises a second JFET and a second piezoresistor coupled in series. a substrate (94, 151) having a mechanical structure that is subject to an applied force; and a bridge circuit formed at least in part on the mechanical structure, the bridge circuit including a first half and a second half, characterized in that the first half of the bridge circuit comprises a first junction field-effect transistor, JFET, and a first piezoresistor coupled in series, and the second half of the bridge circuit comprises a second JFET and a second piezoresistor coupled in series.
A display module comprising: a display panel having a long side and a short side; a light source module having a printed circuit board and a light source mounted on the printed circuit board, and installed adjacent to at least one of the long side (11, 12) and the short side (13, 14) of the display panel; a light guide plate guiding the light emitted from the light source to the display panel; a bottom chassis disposed behind the light guide plate; a guide member including a head part supporting a surface of the printed circuit board to guide the light source module to move in a direction parallel to the other one of said at least one of the long side and the short side adjacent to which the light source module is installed and prevent the light source module from moving in a Z direction orthogonal to the long side and the short side as the light guide plate expands or contracts; characterised in that the surface supported by the head part of the guide member is a front surface of the printed circuit board; a spacer member is attached to the front surface of the printed circuit board to compensate for a thickness of the head part and having a thickness equal to or greater than a thickness of the head part; a graphite sheet is disposed between the light source module and the bottom chassis so as to dissipate heat from the light source module, wherein a lubricant layer is provided on a front surface of the graphite sheet so that the frictional force is reduced when the light source module moves. a display panel having a long side and a short side; a light source module having a printed circuit board and a light source mounted on the printed circuit board, and installed adjacent to at least one of the long side (11, 12) and the short side (13, 14) of the display panel; a light guide plate guiding the light emitted from the light source to the display panel; a bottom chassis disposed behind the light guide plate; a guide member including a head part supporting a surface of the printed circuit board to guide the light source module to move in a direction parallel to the other one of said at least one of the long side and the short side adjacent to which the light source module is installed and prevent the light source module from moving in a Z direction orthogonal to the long side and the short side as the light guide plate expands or contracts; characterised in that the surface supported by the head part of the guide member is a front surface of the printed circuit board; a spacer member is attached to the front surface of the printed circuit board to compensate for a thickness of the head part and having a thickness equal to or greater than a thickness of the head part; a graphite sheet is disposed between the light source module and the bottom chassis so as to dissipate heat from the light source module, wherein a lubricant layer is provided on a front surface of the graphite sheet so that the frictional force is reduced when the light source module moves.
Bite splint (1; 1') having a tunnel-like recess (19; 19') wherein the recess (19; 19') is defined by two walls (3, 5; 3', 5') being connected to each other via a base element (7; 7') and wherein the first wall (3; 3') protrudes straight downwards from the base element (7; 7'), wherein at least a part of an upper surface (13; 13') of the second wall (5; 5') is inclined downwards with respect to an upper surface (11; 11') of the base element (7; 7') characterized in that the width of the first wall is shorter than the width of the second wall with a wing-like element bent off from each lateral ending of the second wall in opposite direction of the first wall.
A surfactant mixture containing a) at least one anionic surfactant, b) at least one nonionic surfactant of formula R 1 O- P, in which R 1 represents -(CH 2) 7 -CH 3 or -(CH 2) 9 -CH 3, G represents a sugar residue having 5 or 6 carbon atoms, and p represents numbers from 1 to 10, characterized in that the nonionic surfactant of formula is contained in an amount of from 35 to 55 wt.%, based on the total amount of all nonionic surfactants. a) at least one anionic surfactant, b) at least one nonionic surfactant of formula R 1 O- P, in which R 1 represents -(CH 2) 7 -CH 3 or -(CH 2) 9 -CH 3, G represents a sugar residue having 5 or 6 carbon atoms, and p represents numbers from 1 to 10,
Optical element for EUV lithography, comprising: a substrate, a reflective coating applied on the substrate, and an electrically conductive coating extending between the substrate and the reflective coating, wherein the electrically conductive coating has at least one section that extends on the substrate laterally beyond the reflective coating, characterized in that the electrically conductive coating has at least one first layer under tensile stress and at least one second layer under compressive stress. a substrate, a reflective coating applied on the substrate, and an electrically conductive coating extending between the substrate and the reflective coating, wherein the electrically conductive coating has at least one section that extends on the substrate laterally beyond the reflective coating, characterized in that the electrically conductive coating has at least one first layer under tensile stress and at least one second layer under compressive stress.
A wet wipe comprising a substrate and a cleansing composition, the cleansing composition comprising a glucomannan, xanthan gum, and carrageenan wherein the ratio of xanthan gum to glucomannan to carrageenan is from 1: 0.02: 0.03 to 1: 0.33: 0.5.
Method for producing a piston for an internal combustion engine, having a combustion bowl, having the following method steps: - attaching a ring-shaped fiber preform having a shape that is suitable for reinforcing the edge of the combustion bowl in a casting mold for the piston, coaxial to the piston axis in the plane of the piston crown, - attaching a ring insert coaxial to the piston axis in the casting mold, at a distance from the piston crown that corresponds to the axial length of the top land, - introducing an aluminum/copper melt low in silicon into the casting mold, for producing a piston blank, - producing a pressure difference between the aluminum/copper melt and the fiber preform such that infiltration of the aluminum/copper melt into the fiber preform occurs, - subsequent compacting of the piston blank by means of hot isostatic pressing, - machining of the piston blank by means of a cutting machining for finishing the piston r, whereby a second and third ring groove (7, 8) are machined into the piston and pin bosses with pin bores are molded onto the piston. - attaching a ring-shaped fiber preform having a shape that is suitable for reinforcing the edge of the combustion bowl in a casting mold for the piston, coaxial to the piston axis in the plane of the piston crown, - attaching a ring insert coaxial to the piston axis in the casting mold, at a distance from the piston crown that corresponds to the axial length of the top land, - introducing an aluminum/copper melt low in silicon into the casting mold, for producing a piston blank, - producing a pressure difference between the aluminum/copper melt and the fiber preform such that infiltration of the aluminum/copper melt into the fiber preform occurs, - subsequent compacting of the piston blank by means of hot isostatic pressing, - machining of the piston blank by means of a cutting machining for finishing the piston r, whereby a second and third ring groove (7, 8) are machined into the piston and pin bosses with pin bores are molded onto the piston.
A lithium-ion secondary battery comprising a positive electrode plate, a negative electrode plate, a separator and an electrolyte, wherein the positive electrode plate comprises a positive electrode current collector and a positive electrode film disposed on at least one surface of the positive electrode current collector, wherein the positive electrode film comprises a positive active material which is a lithium manganese-based positive active material, and the electrolyte comprises an organic solvent and a lithium salt, characterized in that, the positive electrode plate satisfies formula, ρ sum ρ 97.5 − a ≤ 3 in which p sum is volume resistivity of the positive electrode plate, in kΩ·cm, measured according to the description; p is powder volume resistivity of the positive active material under a pressure of 20MPa, in kQ cm, measured according to Test section described in the description; a is mass percentage of the positive active material in the positive electrode film, in wt%; wherein the positive active material has a powder volume resistivity p under a pressure of 20 MPa between 0 to 450 kQ cm. characterized in that, the positive electrode plate satisfies formula, ρ sum ρ 97.5 − a ≤ 3 in which p sum is volume resistivity of the positive electrode plate, in kΩ·cm, measured according to the description; p is powder volume resistivity of the positive active material under a pressure of 20MPa, in kQ cm, measured according to Test section described in the description; a is mass percentage of the positive active material in the positive electrode film, in wt%; wherein the positive active material has a powder volume resistivity p under a pressure of 20 MPa between 0 to 450 kQ cm.
A surface acoustic wave device (100, 101, 102) comprising: a piezoelectric substrate; a single input inter-digital transducer disposed on the piezoelectric substrate, the input inter-digital transducer converting a first electrical signal into a surface acoustic wave signal; a plurality of output inter-digital transducers (131a, 132a, 133a, 134a) disposed on the piezoelectric substrate, the output inter-digital transducers (131a, 132a, 133a, 134a) converting the surface acoustic wave signal into a second electrical signal; and a plurality of delay lines (141a, 142a, 143a, 144a) between the input inter-digital transducer and the output inter-digital transducers (131a, 132a, 133a, 134a), wherein the delay lines (141a, 142a, 143a, 144a) are configured to be reaction areas at which target materials may be bound to a receptor and immobilized for sensing the target materials; wherein at least two of the output inter-digital transducers (131a, 132a, 133a, 134a) are arranged in a row parallel to the longitudinal direction of the input inter-digital transducer; wherein the input inter-digital transducer includes fingers; each finger having a length such that an insertion loss IL of the input inter-digital transducer represented by Formula and below is less than -30 dB: IL = − 20 log Y Y = Y 0 W / λ where Y is a total input admittance, and Y 0 is a characteristics admittance, λ is a wave length and W is a finger length. a piezoelectric substrate; a single input inter-digital transducer disposed on the piezoelectric substrate, the input inter-digital transducer converting a first electrical signal into a surface acoustic wave signal; a plurality of output inter-digital transducers (131a, 132a, 133a, 134a) disposed on the piezoelectric substrate, the output inter-digital transducers (131a, 132a, 133a, 134a) converting the surface acoustic wave signal into a second electrical signal; and a plurality of delay lines (141a, 142a, 143a, 144a) between the input inter-digital transducer and the output inter-digital transducers (131a, 132a, 133a, 134a), wherein the delay lines (141a, 142a, 143a, 144a) are configured to be reaction areas at which target materials may be bound to a receptor and immobilized for sensing the target materials; wherein at least two of the output inter-digital transducers (131a, 132a, 133a, 134a) are arranged in a row parallel to the longitudinal direction of the input inter-digital transducer; wherein the input inter-digital transducer includes fingers; each finger having a length such that an insertion loss IL of the input inter-digital transducer represented by Formula and below is less than -30 dB: IL = − 20 log Y Y = Y 0 W / λ where Y is a total input admittance, and Y 0 is a characteristics admittance, λ is a wave length and W is a finger length.
Welding transformer comprising at least one primary winding, further comprising at least one pair of elements of a secondary winding, namely a first element of the secondary winding and a second element of the secondary winding, and further at least one iron core, wherein said at least one primary winding, further at least one pair of elements of the secondary winding, namely the first element of the secondary winding and the second element of secondary winding, and further at least one iron core, are electrically insulated from one another, said windings at least partially wound around the iron core, wherein each element of said secondary winding comprises at least a first part of said element of said secondary winding and the second part of said element of said secondary winding, wherein said two parts of each of said two elements of secondary windings are partially electrically insulated from each other and partially connected with at least one rectifying means, wherein one part of said parts of the first element of secondary winding and one part of said parts of the second element of the secondary winding are connected together, while the remaining part of said parts of the first element of the secondary winding and the remaining part of said parts of the second element of secondary winding are also connected together, all without additional rectifying means, characterized in that: - the at least one iron core comprises core arrangements (321, 322, 323, 324) having the shape of the letter C, - the first element (234, 401) of the secondary winding and the second element (235, 402) of the secondary winding are identical and symmetrical in structure, - the parts (501, 516, 520, 521) of the secondary winding (401, 402) are made of flat and solid conductor coils, - the at least one rectifying means (237, 238) comprises at least one rectifier means (502-515, 522-535) being integrated into the secondary winding itself and mounted in between the two parts (501, 516; 520, 521) of the two elements (234, 235; 401, 402) of the secondary winding which are partially electrically insulated from each other. - the at least one iron core comprises core arrangements (321, 322, 323, 324) having the shape of the letter C, - the first element (234, 401) of the secondary winding and the second element (235, 402) of the secondary winding are identical and symmetrical in structure, - the parts (501, 516, 520, 521) of the secondary winding (401, 402) are made of flat and solid conductor coils, - the at least one rectifying means (237, 238) comprises at least one rectifier means (502-515, 522-535) being integrated into the secondary winding itself and mounted in between the two parts (501, 516; 520, 521) of the two elements (234, 235; 401, 402) of the secondary winding which are partially electrically insulated from each other.
Method for testing the reliability of the error detection of an image inspection process for a printing machine by means of a computer, wherein the image inspection process and the reliability test are part of a printing operation for the printing machine and wherein the reliability test is an optional part of the image inspection process to be tested and may be manually activated and deactivated, the method comprising the steps of • generating a defective test image by superposing specific defect elements onto a defect-free reference image, said defect elements consisting of dots or areas of various sizes and arrangements • carrying out the image inspection process with the defective test image • comparing the defects detected by the image inspection process and the set of defects to be expected on the basis of the known defects added to the test image • analysing the reliability of the image inspection process on the basis of the difference between the detected defects and the expected defects. • generating a defective test image by superposing specific defect elements onto a defect-free reference image, said defect elements consisting of dots or areas of various sizes and arrangements • carrying out the image inspection process with the defective test image • comparing the defects detected by the image inspection process and the set of defects to be expected on the basis of the known defects added to the test image • analysing the reliability of the image inspection process on the basis of the difference between the detected defects and the expected defects.