mhurhangee/ep-ind-claims huggingface dataset:
A pellicle membrane for lithography, comprising: an amorphous fluoropolymer; and a fluorine-containing solvent in an amount of 5 to 800 ppm by weight. an amorphous fluoropolymer; and a fluorine-containing solvent in an amount of 5 to 800 ppm by weight.
A method for indexing electronic devices, the method including the steps of: integrating a plurality of electronic circuits into portions of a wafer for corresponding dice, forming at least one index (325Rd,325Cd) on each die, each index (325Rd, 325Cd) including a reference structure (330Rd;330Cd) defining an ordered alignment of a plurality of locations (245R,250R;245C,250C) on the die and marker means (360Rdu, 360Rdt, 360Cdu, 360Cdt) for defining a value of the index (325Rd, 325Cd) according to an arrangement of the marker means (360Rdu, 360Rdt, 360Cdu, 360Cdt) with respect to the reference structure (330Rd, 330Cd), the value of the index (325Rd, 325Cd) contributing to indicate a position of the die in the wafer, and cutting the wafer into the dice for forming electronic devices, wherein the ordered alignment of the locations (245R,250R;245C,250C) is logically partitioned into a plurality of location subsets (330Rdu, 330Rdt, 330Cdu, 330Cdt) each one consisting of a plurality of consecutive locations (245R,250R,245C,250C), the step of forming at least one index (325Rd, 325Cd) including, for each index (325Rd, 325Cd), forming at most one marker (360Rdu,360Rdt; 360Cdu,360Cdt) for each location subset (330Rdu, 330Rdt, 330Cdu, 330Cdt) at a selected one of the locations (245R, 250R, 245C, 250C) thereof, the selected location or a lacking of the marker (360Rdu, 360Rdt, 360Cdu, 360Cdt) defining a value of a digit associated with a corresponding power of a base higher than 2 within a number in a positional notation in said base representing the value of the index (325Rd, 325Cd). integrating a plurality of electronic circuits into portions of a wafer for corresponding dice, forming at least one index (325Rd,325Cd) on each die, each index (325Rd, 325Cd) including a reference structure (330Rd;330Cd) defining an ordered alignment of a plurality of locations (245R,250R;245C,250C) on the die and marker means (360Rdu, 360Rdt, 360Cdu, 360Cdt) for defining a value of the index (325Rd, 325Cd) according to an arrangement of the marker means (360Rdu, 360Rdt, 360Cdu, 360Cdt) with respect to the reference structure (330Rd, 330Cd), the value of the index (325Rd, 325Cd) contributing to indicate a position of the die in the wafer, and cutting the wafer into the dice for forming electronic devices, wherein the ordered alignment of the locations (245R,250R;245C,250C) is logically partitioned into a plurality of location subsets (330Rdu, 330Rdt, 330Cdu, 330Cdt) each one consisting of a plurality of consecutive locations (245R,250R,245C,250C), the step of forming at least one index (325Rd, 325Cd) including, for each index (325Rd, 325Cd), forming at most one marker (360Rdu,360Rdt; 360Cdu,360Cdt) for each location subset (330Rdu, 330Rdt, 330Cdu, 330Cdt) at a selected one of the locations (245R, 250R, 245C, 250C) thereof, the selected location or a lacking of the marker (360Rdu, 360Rdt, 360Cdu, 360Cdt) defining a value of a digit associated with a corresponding power of a base higher than 2 within a number in a positional notation in said base representing the value of the index (325Rd, 325Cd).
Agent for precipitating suspended and dissolved substances in municipal waste water to be treated with a mixture comprising a. at least one flocculant for phosphate precipitation comprising Fe X and/or Fe X and/or AIX and/or polymeric compounds thereof, wherein X is either Cl and/or a sulfate and/or a nitrate b. at least one organic polymer as flocculating aid, comprising cationized starch and/or epichlorohydrin dimethylamine copolymer and/or polydiallyldimethylammonium chloride and/or polyamines and/or polyacrylamides and/or a mixture of these substances c. and for influencing the charge distribution and determining the charge of the flocculating aid at least one alkaline earth solution comprising Ca ions and/or Mg ions characterized in that the mixture comprises 30 - 80 wt% of a polymeric AIX solution comprising between 10 and 30 wt% Al 2 O 3, or 30 - 80 wt% of an AlCl 3 solution as flocculant, 5 - 30 wt% of a 40 - 60% epichlorohydrin dimethylamine copolymer solution as flocculating aid, 1 - 15 wt% of a 20 - 40% MgCl 2 solution as alkaline earth solution, and 5 - 30 wt% of a 60 - 80% ethanol solution. a. at least one flocculant for phosphate precipitation comprising Fe X and/or Fe X and/or AIX and/or polymeric compounds thereof, wherein X is either Cl and/or a sulfate and/or a nitrate b. at least one organic polymer as flocculating aid, comprising cationized starch and/or epichlorohydrin dimethylamine copolymer and/or polydiallyldimethylammonium chloride and/or polyamines and/or polyacrylamides and/or a mixture of these substances c. and for influencing the charge distribution and determining the charge of the flocculating aid at least one alkaline earth solution comprising Ca ions and/or Mg ions
An organic light emitting device comprising: a substrate; a first electrode on the substrate; an organic light emitting layer on the first electrode; and a second electrode on the organic light emitting layer, wherein the organic light emitting layer comprises a host, a dopant and an electron trap material, and the electron trap material has a LUMO (Lowest Unoccupied Molecular Orbital) level and HOMO (Highest Occupied Molecular Orbital) level each lower than LUMO level and HOMO level of the host, respectively, characterized in that the dopant and the electron trap material are included in a weight ratio of 1:1∼2 (dopant: electron trap material); wherein the electron trap material is represented by Formula 1 below: wherein: X includes at least one selected from the group including benzene, naphthalene, anthracene, pyrene, perylene, triphenylene, phenanthrene, chrysene, fluorene and spirofluorene, and R1, R2, R3, R4, R5, and R6 each represent H,, R or R-, and wherein: H represents hydrogen, represents an electron withdrawing group, and R represents an aromatic compound, and wherein: at least one of R1 to R6 is not hydrogen. a substrate; a first electrode on the substrate; an organic light emitting layer on the first electrode; and a second electrode on the organic light emitting layer, wherein the organic light emitting layer comprises a host, a dopant and an electron trap material, and the electron trap material has a LUMO (Lowest Unoccupied Molecular Orbital) level and HOMO (Highest Occupied Molecular Orbital) level each lower than LUMO level and HOMO level of the host, respectively, characterized in that the dopant and the electron trap material are included in a weight ratio of 1:1∼2 (dopant: electron trap material); wherein the electron trap material is represented by Formula 1 below: wherein: X includes at least one selected from the group including benzene, naphthalene, anthracene, pyrene, perylene, triphenylene, phenanthrene, chrysene, fluorene and spirofluorene, and R1, R2, R3, R4, R5, and R6 each represent H,, R or R-, and wherein: H represents hydrogen, represents an electron withdrawing group, and R represents an aromatic compound, and wherein: at least one of R1 to R6 is not hydrogen. X includes at least one selected from the group including benzene, naphthalene, anthracene, pyrene, perylene, triphenylene, phenanthrene, chrysene, fluorene and spirofluorene, and R1, R2, R3, R4, R5, and R6 each represent H,, R or R-, and wherein: H represents hydrogen, represents an electron withdrawing group, and R represents an aromatic compound, and wherein: at least one of R1 to R6 is not hydrogen. H represents hydrogen, represents an electron withdrawing group, and R represents an aromatic compound, and
A vehicle power transfer unit assembly, comprising: an input shaft rotating about a first axis; a planetary gear set driven by said input shaft, said planetary gear set including a sun gear and a plurality of planet gears, characterized in that said planetary gear set includes an annular gear, said sun gear being fixed against rotation, said plurality of planet gears interconnected to said input shaft and driven by said input shaft and revolving around said sun gear, said annular gear driven by said plurality of planet gears; an intermediate shaft rotating about the first axis and interconnected to said annular gear and driven by said annular gear; a ring gear interconnected to said intermediate shaft and rotating with said intermediate shaft; and an output gear rotating about a second axis arranged at an angle relative to the first axis, said output gear driven by said ring gear. an input shaft rotating about a first axis; a planetary gear set driven by said input shaft, said planetary gear set including a sun gear and a plurality of planet gears, characterized in that said planetary gear set includes an annular gear, said sun gear being fixed against rotation, said plurality of planet gears interconnected to said input shaft and driven by said input shaft and revolving around said sun gear, said annular gear driven by said plurality of planet gears; an intermediate shaft rotating about the first axis and interconnected to said annular gear and driven by said annular gear; a ring gear interconnected to said intermediate shaft and rotating with said intermediate shaft; and an output gear rotating about a second axis arranged at an angle relative to the first axis, said output gear driven by said ring gear.
An image forming apparatus comprising: receiving means configured to receive data via a network; printing means (200, 300) configured to print an image based on the data received from the receiving means; and control means configured to control the receiving means to refuse a data reception based on a simple mail transfer protocol (SMTP) when a toner remaining amount for the printing means (200, 300) is less than a predetermined value, characterized in that the printing means (200, 300) is further configured to print, in the case that the receiving means receives an image based on page description language data, even if the toner remaining amount is less than the predetermined value. receiving means configured to receive data via a network; printing means (200, 300) configured to print an image based on the data received from the receiving means; and control means configured to control the receiving means to refuse a data reception based on a simple mail transfer protocol (SMTP) when a toner remaining amount for the printing means (200, 300) is less than a predetermined value, characterized in that the printing means (200, 300) is further configured to print, in the case that the receiving means receives an image based on page description language data, even if the toner remaining amount is less than the predetermined value.
Semiconductor arrangement of a Schottky diode with an integrated PN diode as a clamping element, having a breakdown voltage of approximately 20V, wherein the Schottky diode consists of a combination of Schottky diode and PN diode and the breakdown voltage of the PN diode BV_pn is very much lower than the breakdown voltage of the Schottky diode BV_Schottky, wherein an n-type epitaxial layer is applied on an n + -type substrate of a chip and serves as a cathode zone of the Schottky diode, characterized in that the semiconductor arrangement is suitable as a Zener diode for use in a motor vehicle generator system, in that n-type wells realized as filled trenches are present in the n-type epitaxial layer and serve as a cathode zone of the PN diode, and corresponding p + -type wells diffused into the n-type epitaxial layer and into the n-type wells are present and serve as an anode zone of the PN diode, and in that the n-type wells are arranged in a strip arrangement or as islands and the islands are configured in circular fashion or hexagonal fashion or predefinably arbitrary fashion and wherein the trenches have a rectangular shape, a U-shape or some other predefinably arbitrary shape.
A rolling stand for tubes or rounds comprising two or more rolling rolls (10, 20, 30), (11, 21, 31), (40, 50, 60), (41, 51, 61)) defining a rolling section of the rolling stand that is coaxial to a rolling axis of the rolling stand, each roll having - a respective rolling surface (S1, S2) defining a respective straight line of symmetry passing through the rolling axis and through the center of symmetry of the respective surface (S1, S2,) thus determining a first half and a second half of the respective surface (S1, S2), - two gap zones having a radial distance of value H2 from the rolling axis, each gap zone being located at an adjacent roll, - and a groove bottom zone (1, 1', 1", 1"') having a radial distance of value H1 from the rolling axis at the intersecting point of the respective surface (S1, S2) with the respective straight line of symmetry, wherein it provides, for each roll on said respective rolling surface (S1, S2), at least three pushing zones, a first pushing zone of which is arranged on the respective straight line of symmetry at said groove bottom zone (1, 1', 1", 1"'), a second pushing zone (, (2"), (2', 22'), (2", 22")), is circumferentially arranged in the first half of the respective surface (S1, S2) between the respective groove bottom zone (1, 1', 1", 1"') and the adjacent gap zone, at an angular distance of value αR from the respective straight line of symmetry, and a third pushing zone (, (3") (3', 33'), (3", 33")), circumferentially arranged in the second half of the respective surface (S1, S2) between the respective groove bottom zone (1, 1', 1", 1"') and the adjacent gap zone, at an angular distance of value αL from the respective straight line of symmetry, and in that, at each of said at least three pushing zones, there is a respective point of relative minimum of a curve Rpass = H(α) representing the shape of the rolling surface (S1, S2) along a plane orthogonal to the rolling axis, where H(α) is the radial distance of the rolling surface from the rolling axis in function of the angular distance α from the respective straight line of symmetry. - a respective rolling surface (S1, S2) defining a respective straight line of symmetry passing through the rolling axis and through the center of symmetry of the respective surface (S1, S2,) thus determining a first half and a second half of the respective surface (S1, S2), - two gap zones having a radial distance of value H2 from the rolling axis, each gap zone being located at an adjacent roll, - and a groove bottom zone (1, 1', 1", 1"') having a radial distance of value H1 from the rolling axis at the intersecting point of the respective surface (S1, S2) with the respective straight line of symmetry, wherein
A dual barrier liquid storage tank (100; 200; 300) for storing liquid in a subsea environment, comprising: an outer container (110; 310) forming a first barrier against liquids, wherein the outer container (110; 310) is rigid; at least two inner containers (120, 130; 320, 330) disposed within the outer container (110; 310), each inner container (120, 130; 320, 330) forming a second barrier against liquids separate from the first barrier, the at least two inner containers (120, 130; 320, 330) comprising: a first inner container (130; 330) for liquids comprising an inflow valve; and a second inner container (120; 320) for liquids comprising an outflow valve; wherein the at least two inner containers (120, 130; 320, 330) are bladders made of flexible material; wherein the at least two inner containers (120, 130; 320, 330) are pressure balanced; and an annular space between the at least two inner containers (120, 130; 320, 330) and the outer container (110; 310); wherein the volume of the outer container (110; 310) remains fixed, and the volumes of the at least two inner containers (120, 130; 320, 330) are variable and such that, when the outflow valve is opened and the volume of the second inner container (120; 320) decreases, the inflow valve is also opened and the volume of the first inner container (130; 300) increases. an outer container (110; 310) forming a first barrier against liquids, wherein the outer container (110; 310) is rigid; at least two inner containers (120, 130; 320, 330) disposed within the outer container (110; 310), each inner container (120, 130; 320, 330) forming a second barrier against liquids separate from the first barrier, the at least two inner containers (120, 130; 320, 330) comprising: a first inner container (130; 330) for liquids comprising an inflow valve; and a second inner container (120; 320) for liquids comprising an outflow valve; wherein the at least two inner containers (120, 130; 320, 330) are bladders made of flexible material; wherein the at least two inner containers (120, 130; 320, 330) are pressure balanced; and an annular space between the at least two inner containers (120, 130; 320, 330) and the outer container (110; 310); a first inner container (130; 330) for liquids comprising an inflow valve; and a second inner container (120; 320) for liquids comprising an outflow valve; wherein the at least two inner containers (120, 130; 320, 330) are bladders made of flexible material; wherein the at least two inner containers (120, 130; 320, 330) are pressure balanced; and an annular space between the at least two inner containers (120, 130; 320, 330) and the outer container (110; 310); wherein the volume of the outer container (110; 310) remains fixed, and the volumes of the at least two inner containers (120, 130; 320, 330) are variable and such that, when the outflow valve is opened and the volume of the second inner container (120; 320) decreases, the inflow valve is also opened and the volume of the first inner container (130; 300) increases.
A method of producing a stable retroviral packaging cell line, comprising: (a) introducing a nucleic acid vector comprising a non-mammalian origin of replication, one or a plurality of recombination sites(s) and the ability to hold at least 25 kilobases (kb) of DNA selected from: a bacterial artificial chromosome, a yeast artificial chromosome, a P1-derived artificial chromosome, a fosmid or a cosmid, comprising retroviral nucleic acid sequences encoding: gag and pol proteins, and a retroviral env protein, wherein each of the retroviral nucleic acid sequences has its own promoter within the nucleic acid vector, into a culture of mammalian host cells; and (b) selecting within the culture for a mammalian host cell which has the nucleic acid sequences encoded on the vector integrated into an endogenous chromosome of the mammalian host cell. (a) introducing a nucleic acid vector comprising a non-mammalian origin of replication, one or a plurality of recombination sites(s) and the ability to hold at least 25 kilobases (kb) of DNA selected from: a bacterial artificial chromosome, a yeast artificial chromosome, a P1-derived artificial chromosome, a fosmid or a cosmid, comprising retroviral nucleic acid sequences encoding: gag and pol proteins, and a retroviral env protein, wherein each of the retroviral nucleic acid sequences has its own promoter within the nucleic acid vector, into a culture of mammalian host cells; and gag and pol proteins, and a retroviral env protein, (b) selecting within the culture for a mammalian host cell which has the nucleic acid sequences encoded on the vector integrated into an endogenous chromosome of the mammalian host cell.
Method for treating a free surface of a material, comprising a step of emission of at least one first gas flow (QL1 pur -QL4 pur and QC pur), a step of sweeping of the free surface of the material by the first flow (QL1 pur -QL4 pur and QC pur) followed by a step of evacuation of the first flow by at least one evacuation zone (103a-103d), characterized in that it comprises, concomitantly with the step of emission of the first flow (QL1 pur -QL4 pur and QC pur), a step of emission of at least one second gas flow (Qa pro -Qd pro) forming a protective cover above the free surface of the material, spaced apart from said free surface, and a step of evacuation of the second gas flow (Qa pro -Qd pro) by an upper part of said evacuation zone (103a-103d) of a container, said first flow (QL1 pur -QL4 pur and QC pur) being evacuated through a lower part of the evacuation zone (103a-103d), the material being contained in a container provided with at least one evacuation aperture, the second flow being evacuated through an upper part of said evacuation aperture and the first flow being evacuated through a remaining lower part of the evacuation aperture, said upper part of the evacuation aperture (103a-103d) occupying between 50% and 80% of the total height of the aperture (103a-103d).
Tube for the passage of a fluid, comprising: - an inner layer of extendible material, - a reinforcing layer surrounding the inner layer, this reinforcing layer extending about a longitudinal axis and having greater elongation capabilities in one direction than in the other with respect to the longitudinal axis, and - an outer layer surrounding the reinforcing layer, wherein the inner layer and the outer layer are each produced from an extendible material, and the reinforcing layer comprises punctiform orifices through which a material of the inner and outer layers (2, 6) merge, over the whole length of the tube, to form punctiform material links between the inner layer and the outer layer. - an inner layer of extendible material, - a reinforcing layer surrounding the inner layer, this reinforcing layer extending about a longitudinal axis and having greater elongation capabilities in one direction than in the other with respect to the longitudinal axis, and - an outer layer surrounding the reinforcing layer,
Method for synthesizing a graphene sheet on a platinum silicide of formula Pt x Si wherein x is a number greater than or equal to two, which method is characterized in that it comprises: a) producing a stack by: i) depositing, on a substrate, a layer C1 of a diffusion barrier material chosen from oxides and nitrides; ii) depositing, on the layer C1, a layer C2 of a carbon-containing material, said carbon-containing material optionally comprising silicon; iii) depositing, on the layer C2, a layer C3 of platinum; and iv) in case that the carbon-containing material used at sub-step ii) is free from silicon, depositing, on the layer C3, a layer C4 of a material of formula Si a C b H c wherein a is a strictly positive number, whereas b and c, which are identical or different, are positive numbers or zero; then b) heat treating the stack obtained at step a) at a temperature comprised between 200°C and 900°C; and in that the carbon-containing material decomposes at the temperature at which the heat treatment is carried out and the ratio of the number of platinum atoms present in the layer C3 with respect to the number of silicon atoms present in the layer C2 or the layer C4 is greater than or equal to two. a) producing a stack by: i) depositing, on a substrate, a layer C1 of a diffusion barrier material chosen from oxides and nitrides; ii) depositing, on the layer C1, a layer C2 of a carbon-containing material, said carbon-containing material optionally comprising silicon; iii) depositing, on the layer C2, a layer C3 of platinum; and iv) in case that the carbon-containing material used at sub-step ii) is free from silicon, depositing, on the layer C3, a layer C4 of a material of formula Si a C b H c wherein a is a strictly positive number, whereas b and c, which are identical or different, are positive numbers or zero; then i) depositing, on a substrate, a layer C1 of a diffusion barrier material chosen from oxides and nitrides; ii) depositing, on the layer C1, a layer C2 of a carbon-containing material, said carbon-containing material optionally comprising silicon; iii) depositing, on the layer C2, a layer C3 of platinum; and iv) in case that the carbon-containing material used at sub-step ii) is free from silicon, depositing, on the layer C3, a layer C4 of a material of formula Si a C b H c wherein a is a strictly positive number, whereas b and c, which are identical or different, are positive numbers or zero; then b) heat treating the stack obtained at step a) at a temperature comprised between 200°C and 900°C;