mhurhangee/ep-ind-claims huggingface dataset:
A method of user authentication for user access to a restricted resource in a computer system comprising: receiving an indication of a user request to access the restricted resource, the request having associated a current user context defining one or more characteristics of the user; receiving a user selected authentication scheme from a set of authentication schemes for the current user context; comparing the user selected authentication scheme with a set of user-specific rules, each rule indicating one or more authentication schemes for a user context as preferred authentication schemes; permitting access to the restricted resource based on the comparison so as to prevent access to the restricted resource when the rules indicate one or more authentication schemes other than the user selected authentication scheme are preferred for the current user context, wherein each rule in the set of user-specific rules is defined for a user context in a set of user contexts based on a learning process whereby preferred authentication schemes are identified based on a frequency of use of the authentication schemes in prior requests by the requesting user to access the restricted resource, and wherein the learning process for a user context includes, for a plurality of prior requests to access the restricted resource by any user: determining a frequency of use of each authentication scheme; and determining a rate of successful authentication of each authentication scheme. receiving an indication of a user request to access the restricted resource, the request having associated a current user context defining one or more characteristics of the user; receiving a user selected authentication scheme from a set of authentication schemes for the current user context; comparing the user selected authentication scheme with a set of user-specific rules, each rule indicating one or more authentication schemes for a user context as preferred authentication schemes; permitting access to the restricted resource based on the comparison so as to prevent access to the restricted resource when the rules indicate one or more authentication schemes other than the user selected authentication scheme are preferred for the current user context, wherein each rule in the set of user-specific rules is defined for a user context in a set of user contexts based on a learning process whereby preferred authentication schemes are identified based on a frequency of use of the authentication schemes in prior requests by the requesting user to access the restricted resource, and wherein the learning process for a user context includes, for a plurality of prior requests to access the restricted resource by any user: determining a frequency of use of each authentication scheme; and determining a rate of successful authentication of each authentication scheme. determining a frequency of use of each authentication scheme; and determining a rate of successful authentication of each authentication scheme.
A high pressure pump (2, 50) for a common rail pump system, the pump (2, 50) comprising: - a pump body (4, 58) having a cylinder with a piston bore, - a piston reciprocally driven in the piston bore by an eccentric to pressurize fuel in the cylinder, the piston having an inner end located in the piston bore and an outer end outside the piston bore, wherein a bellow having a first opening and a second opening is arranged between the piston and the pump body (4, 58), wherein the piston extends through the first opening and the second opening, wherein the bellow is connected to the pump body (4, 50) such that the first opening is sealed on the pump body (4, 50) and wherein the bellow is connected to the outer end of the piston such that the second opening is sealed on the piston, the high pressure pump further comprising a back leak connection at the bellow, which is connected with a drainage line for draining leakage fuel off an interior space of the bellow, characterized in that a one-way valve is arranged between the back leak connection and the drainage line. - a pump body (4, 58) having a cylinder with a piston bore, - a piston reciprocally driven in the piston bore by an eccentric to pressurize fuel in the cylinder, the piston having an inner end located in the piston bore and an outer end outside the piston bore,
An online-control cooling process for seamless steel tube for effectively refining grains, comprising the following steps: when the temperature of tube is higher than Ar3, evenly spraying water along the circumferential direction of the tube so as to continuously cool the tube to temperature of T1°C~T2°C, the cooling rate being controlled to N1°C/s∼N2°C/s, wherein T1=810-360C-80(Mn+Cr)-37Ni-83Mo, T 2 = T 1 + 115 ° C, N 1 = 55 − 80 × C, N 2 = 168 × 0.8 − C, and C, Mn, Cr, Ni, and Mo in the equations each represents the mass percentage of corresponding elements of the seamless steel tube; then, cooling to the room temperature at a cooling rate no more than 10°C/s. when the temperature of tube is higher than Ar3, evenly spraying water along the circumferential direction of the tube so as to continuously cool the tube to temperature of T1°C~T2°C, the cooling rate being controlled to N1°C/s∼N2°C/s, wherein T1=810-360C-80(Mn+Cr)-37Ni-83Mo, T 2 = T 1 + 115 ° C, N 1 = 55 − 80 × C, N 2 = 168 × 0.8 − C, and C, Mn, Cr, Ni, and Mo in the equations each represents the mass percentage of corresponding elements of the seamless steel tube; then, cooling to the room temperature at a cooling rate no more than 10°C/s.
A wrapper for a cigarette comprising: a pulp layer; and metal particles uniformly distributed inside the pulp layer, wherein the metal particles contain a metal flake paste. a pulp layer; and metal particles uniformly distributed inside the pulp layer, wherein the metal particles contain a metal flake paste.
A turbofan engine comprising: a fan section; a compressor section downstream of the fan section; and a turbine section in driving engagement with the fan section through a speed change mechanism (48; 148; 248), wherein the speed change mechanism (48; 148; 248) comprises: a plurality of star gears surrounding a sun gear; a carrier supporting the plurality of star gears and including a first carrier bearing flange; a ring gear surrounding the plurality of star gears and including a ring gear bearing flange; and at least one ring gear carrier bearing engaging the first carrier bearing flange and the ring gear bearing flange, characterised in that: the carrier is fixed from rotation relative to an engine static structure by a rigid support; and the ring gear is configured to drive the fan section. a fan section; a compressor section downstream of the fan section; and a turbine section in driving engagement with the fan section through a speed change mechanism (48; 148; 248), wherein the speed change mechanism (48; 148; 248) comprises: a plurality of star gears surrounding a sun gear; a carrier supporting the plurality of star gears and including a first carrier bearing flange; a ring gear surrounding the plurality of star gears and including a ring gear bearing flange; and at least one ring gear carrier bearing engaging the first carrier bearing flange and the ring gear bearing flange, characterised in that: the carrier is fixed from rotation relative to an engine static structure by a rigid support; and the ring gear is configured to drive the fan section. a plurality of star gears surrounding a sun gear; a carrier supporting the plurality of star gears and including a first carrier bearing flange; a ring gear surrounding the plurality of star gears and including a ring gear bearing flange; and at least one ring gear carrier bearing engaging the first carrier bearing flange and the ring gear bearing flange, characterised in that: the carrier is fixed from rotation relative to an engine static structure by a rigid support; and the ring gear is configured to drive the fan section. the carrier is fixed from rotation relative to an engine static structure by a rigid support; and the ring gear is configured to drive the fan section.
A method for identifying a sequence of nucleotides in an unknown species of nucleic acid, the method comprising: providing a plurality of fluids each comprising a respective nucleotide; causing a known sequence of the fluids, each of the fluids comprising a corresponding one of the nucleotides, to continuously flow by a label-free ring resonator optical sensor having a surface which is functionalized with the unknown species of nucleic acid; measuring changes in an output signal of the ring resonator optical sensor to detect synthesis reactions between the unknown species of nucleic acid and the known sequence of nucleotides, wherein each of the changes in the output signal results from a change in an optical property of the ring resonator optical sensor caused by one of the nucleotides being added to the unknown species of nucleic acid; and identifying a sequence of nucleotides in the unknown species of nucleic acid based on the measured changes in the output signal and the known sequence of nucleotides. providing a plurality of fluids each comprising a respective nucleotide; causing a known sequence of the fluids, each of the fluids comprising a corresponding one of the nucleotides, to continuously flow by a label-free ring resonator optical sensor having a surface which is functionalized with the unknown species of nucleic acid; measuring changes in an output signal of the ring resonator optical sensor to detect synthesis reactions between the unknown species of nucleic acid and the known sequence of nucleotides, wherein each of the changes in the output signal results from a change in an optical property of the ring resonator optical sensor caused by one of the nucleotides being added to the unknown species of nucleic acid; and identifying a sequence of nucleotides in the unknown species of nucleic acid based on the measured changes in the output signal and the known sequence of nucleotides.
A cleaner comprising: a first cleaning module comprising a left spin mop and a right spin mop configured to come into contact with a floor while rotating; a second cleaning module being in front of the first cleaning module; and a body supported by the first cleaning module and the second cleaning module, characterized in that a point (Pla) on a bottom surface of the left spin mop that receives largest frictional force from the floor is located on a left-front side of a rotation center of the left spin mop, and a point (Plb) on a bottom surface of the right spin mop that receives largest frictional force from the floor is located on a right-front side of a rotation center of the right spin mop. a first cleaning module comprising a left spin mop and a right spin mop configured to come into contact with a floor while rotating; a second cleaning module being in front of the first cleaning module; and a body supported by the first cleaning module and the second cleaning module, characterized in that a point (Pla) on a bottom surface of the left spin mop that receives largest frictional force from the floor is located on a left-front side of a rotation center of the left spin mop, and a point (Plb) on a bottom surface of the right spin mop that receives largest frictional force from the floor is located on a right-front side of a rotation center of the right spin mop.
A nuclear reactor dismantlement system, comprising a bio-protective concrete including a first space into which a reactor is inserted and a second space that is connected to the first space and is a more expanded space than the first space, a moving device that is positioned in the second space and adapted to move the reactor, and a cutting device that is positioned in the second space and adapted to cut the reactor. a bio-protective concrete including a first space into which a reactor is inserted and a second space that is connected to the first space and is a more expanded space than the first space, a moving device that is positioned in the second space and adapted to move the reactor, and a cutting device that is positioned in the second space and adapted to cut the reactor.
Aqueous, solids-containing dipping bath composition for treating reinforcing inserts for rubber products comprising the following components or consisting of these components, at least one blocked MDI mixture, the MDI mixture comprising MDI oligomers of formula, n being a whole number from 1 to 8, and MDI monomers; at least one latex; and at least one compound selected from the group consisting of polyacrylates, lignin sulphonates, lignin sulphonic acids and mixtures hereof; wherein the dipping bath composition comprises less than 0,4% by weight epoxy, relative to the total weight of the dipping bath and wherein the dipping bath composition comprises less than 1,0% by weight resorcinol, formaldehyde and the reaction products thereof, relative to the total weight of the dipping bath at least one blocked MDI mixture, the MDI mixture comprising MDI oligomers of formula, n being a whole number from 1 to 8, and MDI monomers; at least one latex; and at least one compound selected from the group consisting of polyacrylates, lignin sulphonates, lignin sulphonic acids and mixtures hereof;
An oxygen reduction catalyst comprising titanium, carbon, nitrogen, and oxygen as constituent elements, and at least one transition metal element M2 selected from iron, nickel, chromium, cobalt, vanadium, and manganese, wherein 0.1<x≤7, 0.01<y≤2, and 0.05<z≤0.6 are met when a ratio of the number of atoms of each of the constituent elements (titanium: carbon: nitrogen: oxygen) is represented by 1: x: y: z; in XRD measurement using a Cu-Kα ray, peaks are each present in at least regions A and B among regions A to D which occupy 2θ ranges described below: A: 42° to 43°, B: 36.5° to 37°, C: 25° to 26°, and D: 27° to 28°; and each of maximum peak intensities I A, I B, Ic, and I D in the regions A to D satisfies both relationships described in expressions and described below: I A > I B and 0.3 ≤ I A / I A + I C + I D ≤ 1 A: 42° to 43°, B: 36.5° to 37°, C: 25° to 26°, and D: 27° to 28°; and
A method for producing a pharmaceutical composition comprising the antibody isolated by the screening method comprising the steps of: (a) determining the antigen-binding activity of an antibody at pH 6.7 to pH 10.0; (b) determining the antigen-binding activity of the antibody at pH 4.0 to pH 6.5; and (c) selecting the antibody whose antigen-binding activity at pH 6.7 to pH 10.0 is greater than that at pH 4.0 to pH 6.5; and formulating the antibody selected in step (c) into a pharmaceutical composition. (a) determining the antigen-binding activity of an antibody at pH 6.7 to pH 10.0; (b) determining the antigen-binding activity of the antibody at pH 4.0 to pH 6.5; and (c) selecting the antibody whose antigen-binding activity at pH 6.7 to pH 10.0 is greater than that at pH 4.0 to pH 6.5;
A method of starting an internal combustion engine, in particular a stationary gas engine, wherein the internal combustion engine is driven by at least one starter motor, wherein after starting of the starter motor the starting process is broken off if the angular acceleration (a) of the internal combustion engine remains below a predeterminable acceleration value and/or if within a predeterminable first time (t A) the actual rotary speed (n) remains below a predeterminable first rotary speed threshold value (n A) and/or within a predeterminable second time the average rotary speed of the internal combustion engine remains below a predeterminable second rotary speed threshold value, wherein the starter motor is in the form of a pneumatic starter motor whose compressed air feed is controlled by a compressed air valve, wherein the compressed air valve can be switched over between a completely opened position and a completely closed position, wherein starting of the pneumatic starter motor is effected by complete opening of the compressed air valve, wherein the starting procedure includes the following steps: a) complete opening of the compressed air valve and thus acceleration of the internal combustion engine, b) complete closing of the compressed air valve and thus reduction in the actual rotary speed (n) as soon as the actual rotary speed (n) reaches a predeterminable maximum rotary speed (nmax). c) complete opening of the compressed air valve as soon as the actual rotary speed (n) reaches a predeterminable threshold value rotary speed (n s), d) break-off of the starting process if in spite of complete opening of the compressed air valve the actual rotary speed (n) falls below a predeterminable minimum rotary speed (n min) and/or the angular acceleration (a) of the internal combustion engine remains below a predeterminable acceleration value. a) complete opening of the compressed air valve and thus acceleration of the internal combustion engine, b) complete closing of the compressed air valve and thus reduction in the actual rotary speed (n) as soon as the actual rotary speed (n) reaches a predeterminable maximum rotary speed (nmax). c) complete opening of the compressed air valve as soon as the actual rotary speed (n) reaches a predeterminable threshold value rotary speed (n s), d) break-off of the starting process if in spite of complete opening of the compressed air valve the actual rotary speed (n) falls below a predeterminable minimum rotary speed (n min) and/or the angular acceleration (a) of the internal combustion engine remains below a predeterminable acceleration value.
A method for wireless communication by a first wireless access point, the method comprising: obtaining a transmission opportunity for wireless communication via a wireless channel; selecting one or more other wireless access points to participate in the transmission opportunity; wirelessly transmitting a first frame to the one or more selected access points that includes, for each of the selected access points, an indication of time resources, of a plurality of time resources of the transmission opportunity, allocated to the respective access point and usable by the respective access point to transmit data to, or receive data from, one or more respective wireless stations associated with the respective access point during the transmission opportunity; and wirelessly transmitting data to, or receiving data from, one or more first wireless stations associated with the first wireless access point using first time resources allocated to the first wireless access point from the plurality of time resources, the first time resources not overlapping other time resources of the plurality of time resources that are allocated to the selected access points. obtaining a transmission opportunity for wireless communication via a wireless channel; selecting one or more other wireless access points to participate in the transmission opportunity; wirelessly transmitting a first frame to the one or more selected access points that includes, for each of the selected access points, an indication of time resources, of a plurality of time resources of the transmission opportunity, allocated to the respective access point and usable by the respective access point to transmit data to, or receive data from, one or more respective wireless stations associated with the respective access point during the transmission opportunity; and wirelessly transmitting data to, or receiving data from, one or more first wireless stations associated with the first wireless access point using first time resources allocated to the first wireless access point from the plurality of time resources, the first time resources not overlapping other time resources of the plurality of time resources that are allocated to the selected access points.
An electronic device (100, 300, 500, 1000), comprising: a housing comprising: a front plate (102, 320) facing a first direction, a rear plate (111, 380) facing a second direction opposite to the first direction, and a side member configured to enclose a space between the front plate (102, 320) and the rear plate (111, 380); a display panel having a first surface viewed through the front plate (102, 320); a cover panel coupled to a second surface of the display panel and positioned at an area that overlaps with the display panel, the cover panel comprising: a hole formed separated from a first edge of the display panel by a first area, the first area corresponding to a portion of the cover panel and extending from the hole to the first edge, and a second area including remaining areas of the cover panel except for the hole and the first area, wherein an electromagnetic shield layer of the cover panel is disposed in only the second area; and a sensor comprising: a light receiving portion positioned to correspond to a position of the hole of the cover panel, and a light emitting portion positioned at an area beyond the first edge of the display panel. a housing comprising: a front plate (102, 320) facing a first direction, a rear plate (111, 380) facing a second direction opposite to the first direction, and a side member configured to enclose a space between the front plate (102, 320) and the rear plate (111, 380); a front plate (102, 320) facing a first direction, a rear plate (111, 380) facing a second direction opposite to the first direction, and a side member configured to enclose a space between the front plate (102, 320) and the rear plate (111, 380); a display panel having a first surface viewed through the front plate (102, 320); a cover panel coupled to a second surface of the display panel and positioned at an area that overlaps with the display panel, the cover panel comprising: a hole formed separated from a first edge of the display panel by a first area, the first area corresponding to a portion of the cover panel and extending from the hole to the first edge, and a second area including remaining areas of the cover panel except for the hole and the first area, wherein an electromagnetic shield layer of the cover panel is disposed in only the second area; and a hole formed separated from a first edge of the display panel by a first area, the first area corresponding to a portion of the cover panel and extending from the hole to the first edge, and a second area including remaining areas of the cover panel except for the hole and the first area, wherein an electromagnetic shield layer of the cover panel is disposed in only the second area; and a sensor comprising: a light receiving portion positioned to correspond to a position of the hole of the cover panel, and a light emitting portion positioned at an area beyond the first edge of the display panel.