mhurhangee/ep-ind-claims huggingface dataset:
A lipase variant comprising an amino acid sequence of a starting microbial lipase that has been substituted in at least one amino acid at a position that corresponds to amino acid residue 170, 171, 239, 242, 243, 254, 258, 262, 269, 322, or 326, of SEQ ID NO:11, wherein the substitution confers to the lipase variant a) an increase in hydrolytic or ethanolytic activity in the presence of at least a first trans-fatty acid moiety, when compared to that of the un-substituted starting microbial lipase; b) an increased preference for catalyzing fatty acid moieties having a carbon chain length greater than or equal to six (≥C 6), when compared to that of the un-substituted starting microbial lipase; or c) a combination thereof; wherein the starting microbial lipase is obtained from Candida antarctica, Ustilago maydis, Kurtzmanomyces species 1-11, or Sporisorium relianum; and wherein, when the starting microbial lipase has been substituted in at least one amino acid at a position that corresponds to amino acid residue 242, 254, 258, 170 or 171, the at least one amino acid substitution is: a phenylalanine-to-threonine substitution at amino acid residue 170 (F170T); a phenylalanine-to-asparagine substitution at amino acid residue 170 (F170N); a phenylalanine-to-valine substitution at amino acid residue 170 (F170V); a threonine-to-isoleucine substitution at amino acid residue 242 (T242I), a threonine-to-histidine substitution at amino acid residue 242 (T242H); a phenylalanine-to-arginine substitution at amino acid residue 254 (F254R); a glycine-to-alanine substitution at amino acid residue 258 (G258A); a glycine-to-valine substitution at amino acid residue 258 (G258V); a glycine-to-arginine substitution at amino acid residue 258 (G258R); a glycine-to-tryptophan substitution at amino acid residue 258 (G258W); a glycine-to-tyrosine substitution at amino acid residue 258 (G258Y); an isoleucine-to-lysine substitution at amino acid residue 171 (I171K); an isoleucine-to-threonine substitution at amino acid residue 171 (I171T); an isoleucine-to-glutamic acid substitution at amino acid residue 171 (I171E); and/or an isoleucine-to-valine substitution at amino acid residue 171 (I171V).
A hollow fiber degassing module which includes a hollow fiber membrane bundle obtained by bundling a plurality of hollow fiber membranes in a cylindrical shape, a cylindrical body receiving the hollow fiber membrane bundle and extending in an axial direction and degassing a liquid by supplying the liquid to a gap between the hollow fiber membranes from a hollow portion of the hollow fiber membrane bundle and depressurizing the inside of the hollow fiber membrane, a supply port communicating with the gap between the hollow fiber membranes to supply the liquid, and an intake port communicating with insides of the hollow fiber membranes to suction a gas, the hollow fiber degassing module characterized by: a support body which contacts an inner peripheral surface of the hollow fiber membrane bundle, wherein the support body has a cylindrical shape and has a mesh shape, and the support body is disposed between one end surface and the other end surface of the hollow fiber membrane bundle in a center axis direction of the hollow fiber membrane. a hollow fiber membrane bundle obtained by bundling a plurality of hollow fiber membranes in a cylindrical shape, a cylindrical body receiving the hollow fiber membrane bundle and extending in an axial direction and degassing a liquid by supplying the liquid to a gap between the hollow fiber membranes from a hollow portion of the hollow fiber membrane bundle and depressurizing the inside of the hollow fiber membrane, a supply port communicating with the gap between the hollow fiber membranes to supply the liquid, and an intake port communicating with insides of the hollow fiber membranes to suction a gas, the hollow fiber degassing module characterized by: a support body which contacts an inner peripheral surface of the hollow fiber membrane bundle, wherein the support body has a cylindrical shape and has a mesh shape, and the support body is disposed between one end surface and the other end surface of the hollow fiber membrane bundle in a center axis direction of the hollow fiber membrane. a support body which contacts an inner peripheral surface of the hollow fiber membrane bundle, wherein the support body has a cylindrical shape and has a mesh shape, and the support body is disposed between one end surface and the other end surface of the hollow fiber membrane bundle in a center axis direction of the hollow fiber membrane.
A water drain system, comprising a duct which can be set up on a water sub-surface in the form of a roof surface and having a drain, the duct having a lateral wall surrounding a cavity in a waterproof manner, which comprises at least one inlet with at least one inlet opening through which water can get into the cavity, the duct being positioned on the roof surface in such a way that the cavity comes to rest above the drain, and at least one closure being provided for the watertight sealing of the at least one inlet opening, characterized in that an actuating device for moving the at least one closure for the adjustment of the opening size of the at least one inlet opening, as well as a control device for controlling the actuating device are provided.
An optical filter device, comprising: an optical filter assembly (110, 310) configured to reflect one or more preselected wavelengths, the optical filter assembly (110, 310) comprising a first end (102, 302) with a first ferrule end face (103, 303) and a second end (104, 304) with a second ferrule end face (105, 305); and a housing (120, 320) comprising a plug end (122, 322) and a receptacle end (124, 324), and a passageway between the plug end (122, 322) and the receptacle end (124, 324), wherein the plug end (122, 322) comprises a shroud with a single fiber connector footprint and wherein at least a portion of the optical filter assembly (110, 310) is disposed within the passageway of the housing (120, 320) and the first end (102, 302) of the optical filter assembly (110, 310) extends beyond the shroud; the optical fiber device being characterized in that the receptacle end of the passageway of the housing has internal threads and the optical fiber device further comprises one or more O-rings for sealing. an optical filter assembly (110, 310) configured to reflect one or more preselected wavelengths, the optical filter assembly (110, 310) comprising a first end (102, 302) with a first ferrule end face (103, 303) and a second end (104, 304) with a second ferrule end face (105, 305); and a housing (120, 320) comprising a plug end (122, 322) and a receptacle end (124, 324), and a passageway between the plug end (122, 322) and the receptacle end (124, 324), wherein the plug end (122, 322) comprises a shroud with a single fiber connector footprint and wherein at least a portion of the optical filter assembly (110, 310) is disposed within the passageway of the housing (120, 320) and the first end (102, 302) of the optical filter assembly (110, 310) extends beyond the shroud; the optical fiber device being characterized in that the receptacle end of the passageway of the housing has internal threads and the optical fiber device further comprises one or more O-rings for sealing.
A method for manufacturing a solar cell, the method comprising: forming a first electrode layer on a substrate; forming a light absorbing layer on the first electrode layer; forming a buffer layer on the light absorbing layer; annealing the buffer layer to reduce an oxygen content in the buffer layer; forming a high-resistance buffer layer on the annealed buffer layer, the high-resistance buffer layer comprising ZnO, and forming a second electrode layer on the high-resistance buffer layer, characterized in that: the buffer layer has an oxygen content in a range of 2 at% to 5 at% after the annealing; the buffer layer has an oxygen content of 6 at% or more before the annealing; wherein the buffer layer includes ZnS; wherein the light absorbing layer includes group I-III-IV compounds; wherein an annealing temperature is in a range of 250°C to 400 °C; and wherein the step of annealing includes a rapid thermal annealing. forming a first electrode layer on a substrate; forming a light absorbing layer on the first electrode layer; forming a buffer layer on the light absorbing layer; annealing the buffer layer to reduce an oxygen content in the buffer layer; forming a high-resistance buffer layer on the annealed buffer layer, the high-resistance buffer layer comprising ZnO, and forming a second electrode layer on the high-resistance buffer layer, the buffer layer has an oxygen content in a range of 2 at% to 5 at% after the annealing; the buffer layer has an oxygen content of 6 at% or more before the annealing; wherein the buffer layer includes ZnS; wherein the light absorbing layer includes group I-III-IV compounds; wherein an annealing temperature is in a range of 250°C to 400 °C; and wherein the step of annealing includes a rapid thermal annealing.
Package containing components of a hardenable multi-component mass, comprising - a string of capsules that comprises at least three capsules, which are arranged next to each other in threadlike manner, and - an envelope, in which the string of capsules is encased, - wherein at least one of the capsules is an A-type capsule (11 A), which encapsulates a portion of an A-component of the hardenable multi-component mass, and wherein at least one of the capsules is a B-type capsule (11 B), which encapsulates a portion of a B-component of the hardenable multi-component mass. - a string of capsules that comprises at least three capsules, which are arranged next to each other in threadlike manner, and - an envelope, in which the string of capsules is encased, - wherein at least one of the capsules is an A-type capsule (11 A), which encapsulates a portion of an A-component of the hardenable multi-component mass, and wherein at least one of the capsules is a B-type capsule (11 B), which encapsulates a portion of a B-component of the hardenable multi-component mass.
Method for geolocation of a target point materialized by the tip of a rod of a leveling tool, the head of the rod supporting at least one antenna connected to a geolocation module providing data (XG, y G, zc, t) where XG, y G, z G refer to the coordinates of the position of said antenna at time t, a tilt sensor providing an item of data (alpha, t) as a function of the tilt of said antenna relative to the vertical at time t, said method comprising a step of recording a succession of data (x Gi, y Gi, alpha i) during a period where the position of said tip is immobile and where the position of said head is driven by a gyratory movement, and in that a digital processing is applied to said succession of data (x Gi, y Gi, alpha i) to calculate the coordinates (x A, y A) of said target point, said tip being provided with a ground contact detector, said ground contact detector controlling the starting of an acquisition sequence, characterized in that the acquisition sequence is started for a period between the detection by said tilt sensor of a gyratory movement and the acquisition of a number of data (x Gi, y Gi, alpha i) exceeding a predetermined threshold.
A journal bearing device comprising: a rotor (1; 101) of a rotary machine and a bearing (2; 102) for holding the rotor (1; 101), the bearing comprising: a bearing base metal (4; 104) composed of an upper bearing base metal and a lower bearing base metal and a bearing liner (3; 103) made of a material different from that of the bearing base metal (4; 104) and composed of an upper bearing liner (3b; 103b) and a lower bearing liner (3a; 103a), wherein a cooling groove (6; 106) is provided in an outer circumferential surface of the lower bearing liner (3a; 103a) and extends along a circumferential direction of the lower bearing liner (3a; 103a); and means is provided for supplying a lubricant to the cooling groove (6; 106) to ensure that the lubricant flows in the cooling groove (6; 106) in the opposite direction to a rotational direction of the rotor (1; 101), wherein the bearing base metal (4; 104) and the bearing liner (3; 103) constitute the bearing (2; 102) and are integrated with each other by means of a fastening member, the lubricant that passes through the cooling groove (6; 106) is supplied to a bearing load-receiving surface of the lower bearing (2a; 102a), and an oil pocket is disposed at a shaft-sliding surface of the inner circumferential side of the bearing liner above a supply position of the lubricant supplying means, which converges the lubricant to an oil drain hole for discharging the lubricant through the base metal and a lubricant drain hole to the outside of the bearing (2; 102).
A digital radiographic, DR, phase-contrast imaging, PCI, system for capturing phase-contrast radiographic images of an object, the system comprising: an x-ray source for emitting an x-ray beam at different selectable relative x-ray beam energies radiographic imaging; a digital radiographic, DR, detector (140, D); a source grating G0; an x-ray grating interferometer comprising a gratings holder configured to hold an array of selectable phase gratings G1, and an analyzer grating G2, wherein the gratings holder is made of low absorbing material and movable in a direction perpendicular to a direction of the x-ray beam to position a selected one of the array of selectable phase gratings G1 between the source grating G0 and the DR detector (140, D); and a look up table storing information associated with a selected one of the different relative x-ray beam energies to identify one of the array of selectable phase gratings G1, corresponding to the selected one of the different relative x-ray beam energies, to move into the position between the source grating G0 and the DR detector (140, D) to capture a phase-contrast radiographic image of the object; wherein the arrangement of the source grating G0, the x-ray grating interferometer and a position of the DR detector (140, D) is configured to provide at least two phase-contrast radiographic images of the object obtained at different relative x-ray beam energies. an x-ray source for emitting an x-ray beam at different selectable relative x-ray beam energies radiographic imaging; a digital radiographic, DR, detector (140, D); a source grating G0; an x-ray grating interferometer comprising a gratings holder configured to hold an array of selectable phase gratings G1, and an analyzer grating G2, wherein the gratings holder is made of low absorbing material and movable in a direction perpendicular to a direction of the x-ray beam to position a selected one of the array of selectable phase gratings G1 between the source grating G0 and the DR detector (140, D); and a look up table storing information associated with a selected one of the different relative x-ray beam energies to identify one of the array of selectable phase gratings G1, corresponding to the selected one of the different relative x-ray beam energies, to move into the position between the source grating G0 and the DR detector (140, D) to capture a phase-contrast radiographic image of the object; wherein the arrangement of the source grating G0, the x-ray grating interferometer and a position of the DR detector (140, D) is configured to provide at least two phase-contrast radiographic images of the object obtained at different relative x-ray beam energies.
Brazing sheet comprising a core layer and a braze cladding, said core layer being aluminium or an aluminium alloy, said braze cladding comprising (a) a flux composite layer, which flux composite layer comprises a matrix of aluminium or an aluminium alloy, said matrix containing flux particles; (b) a filler alloy layer not containing flux particles; and, (c) an aluminium or aluminium alloy layer not containing flux particles, said layer forming the outermost surface of at least one side of the brazing sheet, wherein the flux composite layer (a) is positioned between said filler alloy layer (b) and said aluminium or aluminium alloy layer (c).
An in vitro method for the prediction, prognosis and/or diagnosis of sepsis-induced acute kidney injury or acute kidney injury, in a test subject comprising: - measuring the level of chitinase-3-like protein 1 in a urine sample taken from said test subject, and - comparing said level of chitinase-3-like protein 1 with a reference level of chitinase-3-like protein 1 obtained from a urine sample from a healthy subject without acute kidney injury or of a septic subject without acute kidney injury, wherein - an increased level of chitinase-3-like protein 1 in a urine sample of the test subject as compared to that of a urine sample of a healthy subject without acute kidney injury or of a septic subject without acute kidney injury indicates that the test subject has or is at risk of having sepsis-induced acute kidney injury or having acute kidney injury. - measuring the level of chitinase-3-like protein 1 in a urine sample taken from said test subject, and - comparing said level of chitinase-3-like protein 1 with a reference level of chitinase-3-like protein 1 obtained from a urine sample from a healthy subject without acute kidney injury or of a septic subject without acute kidney injury, wherein - an increased level of chitinase-3-like protein 1 in a urine sample of the test subject as compared to that of a urine sample of a healthy subject without acute kidney injury or of a septic subject without acute kidney injury indicates that the test subject has or is at risk of having sepsis-induced acute kidney injury or having acute kidney injury.
A tetraalkylammonium tetra- or hexa-hydroxometalate of the formula (N(alkyl) 4) y [M x] wherein M is a metal selected from the group consisting of rhodium or palladium; alkyl is an alkyl group with one to 6 carbon atoms; Y is 1, 2 or 3; and X is 4 or 6. M is a metal selected from the group consisting of rhodium or palladium; alkyl is an alkyl group with one to 6 carbon atoms; Y is 1, 2 or 3; and X is 4 or 6.
A method for a WLAN-enabled device to access to a network, comprising: step S1, acquiring, by an intelligent terminal device, a key KEY1, wherein the KEY1 is acquired from outside of the intelligent terminal device or locally generated in the intelligent terminal device, and the KEY1 is generated using a key material of the WLAN-enabled device and unique identification information of the intelligent terminal, wherein the key material comprises a pre-shared key KEY0 distributed by a key distribution center KC or unique identification information of the WLAN-enabled device; step S2, encrypting, by the intelligent terminal device, access information of a wireless access device known by the intelligent terminal device using the KEY1; and transmitting, by the intelligent terminal device, the encrypted access information as well as the unique identification information; and step S3, receiving, by the WLAN-enabled device, the unique identification information and the encrypted access information; generating, by the WLAN-enabled device, the KEY1 using the unique identification information and the preset key material; and decrypting, by the WLAN-enabled device, the encrypted access information using the KEY1, to acquire the access information. step S1, acquiring, by an intelligent terminal device, a key KEY1, wherein the KEY1 is acquired from outside of the intelligent terminal device or locally generated in the intelligent terminal device, and the KEY1 is generated using a key material of the WLAN-enabled device and unique identification information of the intelligent terminal, wherein the key material comprises a pre-shared key KEY0 distributed by a key distribution center KC or unique identification information of the WLAN-enabled device; step S2, encrypting, by the intelligent terminal device, access information of a wireless access device known by the intelligent terminal device using the KEY1; and transmitting, by the intelligent terminal device, the encrypted access information as well as the unique identification information; and step S3, receiving, by the WLAN-enabled device, the unique identification information and the encrypted access information; generating, by the WLAN-enabled device, the KEY1 using the unique identification information and the preset key material; and decrypting, by the WLAN-enabled device, the encrypted access information using the KEY1, to acquire the access information.
A method for producing a composition, comprising the steps of: dry milling a solid biologically active material and a millable grinding matrix in a mill comprising a plurality of milling bodies, for a time period sufficient to produce particles of the biologically active material dispersed in an at least partially milled grinding material, wherein the biologically active material is meloxicam and the particles have a median particle size, determined on a particle volume basis, equal or less than 1,000 nm. dry milling a solid biologically active material and a millable grinding matrix in a mill comprising a plurality of milling bodies, for a time period sufficient to produce particles of the biologically active material dispersed in an at least partially milled grinding material, wherein the biologically active material is meloxicam and the particles have a median particle size, determined on a particle volume basis, equal or less than 1,000 nm.
A method of augmenting location data at a mobile device, the method comprising: accessing on the mobile device an application containing an indication that 3 rd party temporal location data is available for the mobile device; detecting the indication in the application that the 3 rd party temporal location data is available at a network location, said 3rd party temporal location data being associated with a venue providing physical locations associated with a plurality of temporary communication transmitters; and augmenting location data used by a location service of the mobile device with the 3rd party temporal location data available at the network location for use in determining an estimate of a position of the mobile device that detects one or more of the plurality of temporary communication transmitters. accessing on the mobile device an application containing an indication that 3 rd party temporal location data is available for the mobile device; detecting the indication in the application that the 3 rd party temporal location data is available at a network location, said 3rd party temporal location data being associated with a venue providing physical locations associated with a plurality of temporary communication transmitters; and augmenting location data used by a location service of the mobile device with the 3rd party temporal location data available at the network location for use in determining an estimate of a position of the mobile device that detects one or more of the plurality of temporary communication transmitters.