mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a protective coating on a surface of an aluminum, aluminum alloy, titanium or titanium alloy article, said method comprising: A) providing an anodizing solution comprised of water, a phosphorus containing acid and/or salt, and one or more additional components selected from the group consisting of: a) water-soluble complex fluorides, b) water-soluble complex oxyfluorides, c) water-dispersible complex fluorides, and d) water-dispersible complex oxyfluorides of elements selected from the group consisting of Ti, Zr, Hf, Sn, Al, Ge and B and mixtures thereof; B) providing a cathode in contact with said anodizing solution; C) placing an aluminum, aluminum alloy, titanium or titanium alloy article as an anode in said anodizing solution; and D) passing an average current of at least 1.08 A/dm 2 (10 Amps/ft 2) between the anode and cathode through said anodizing solution for a time effective to form a protective coating with an add-on mass of at least 5 g/m 2 on at least one surface of the article. A) providing an anodizing solution comprised of water, a phosphorus containing acid and/or salt, and one or more additional components selected from the group consisting of: a) water-soluble complex fluorides, b) water-soluble complex oxyfluorides, c) water-dispersible complex fluorides, and d) water-dispersible complex oxyfluorides of elements selected from the group consisting of Ti, Zr, Hf, Sn, Al, Ge and B and mixtures thereof; a) water-soluble complex fluorides, b) water-soluble complex oxyfluorides, c) water-dispersible complex fluorides, and d) water-dispersible complex oxyfluorides B) providing a cathode in contact with said anodizing solution; C) placing an aluminum, aluminum alloy, titanium or titanium alloy article as an anode in said anodizing solution; and D) passing an average current of at least 1.08 A/dm 2 (10 Amps/ft 2) between the anode and cathode through said anodizing solution for a time effective to form a protective coating with an add-on mass of at least 5 g/m 2 on at least one surface of the article.
A speaker system comprising at least one horn pair, each horn pair having: a first horn with a first horn entrance, a first horn mouth spaced from the first horn entrance, and a formed, curved horn throat extending between the first horn entrance and the first horn mouth; and a second horn with a second horn entrance positioned side-to-side to the first horn entrance, a second horn mouth spaced from the second horn entrance, said second horn mouth disposed adjacent to the first horn mouth, and a formed, curved throat extending between the second horn entrance and the second horn mouth; characterized by: the first horn entrance and the second horn entrance being on a common first plane, said common first plane extending through both the first and second horn entrances, and the first horn mouth and the second horn mouth are disposed adjacent to each other in a direction that is transverse to the common plane on which the first and second horn entrances are located. a first horn with a first horn entrance, a first horn mouth spaced from the first horn entrance, and a formed, curved horn throat extending between the first horn entrance and the first horn mouth; and a second horn with a second horn entrance positioned side-to-side to the first horn entrance, a second horn mouth spaced from the second horn entrance, said second horn mouth disposed adjacent to the first horn mouth, and a formed, curved throat extending between the second horn entrance and the second horn mouth; characterized by: the first horn entrance and the second horn entrance being on a common first plane, said common first plane extending through both the first and second horn entrances, and the first horn mouth and the second horn mouth are disposed adjacent to each other in a direction that is transverse to the common plane on which the first and second horn entrances are located.
Rotor, in particular of a gas turbine, having a rotor disc which has a plurality of blade-holding grooves which are arranged in a circumferentially distributed manner and pass axially through the rotor disc, wherein arranged in the rotor disc or in a rotor component adjacent to the rotor disc is an encircling, radially outwardly opening annular groove whose circumferentially and radially extending flank forms a sealing surface, and having at least one first covering element (11a, 41) which (11a, 41), with a first inner engagement portion (12a, 42), engages into the annular groove and bears against the sealing surface, and having at least one second covering element which, adjacent to the first covering element, with a second inner engagement portion, engages in the annular groove and bears against the sealing surface, wherein, between the two engagement portions (12a, 12b, 42), provision is made of an inner free space for installation that adjoins the sealing surface, wherein provision is made of a closing element (21, 51) which (21, 51) is fastened to the first inner engagement portion (12a, 42) and which, at least during rotation of the rotor, bears against the second inner engagement portion and which closes off the inner free space for installation, wherein the closing element (21, 41) is fastened in a receiving profile (16, 46), which is open towards the rotor axis, by way of a holding profile (22, 52), characterized in that the receiving profile (16, 46) passes through the first engagement portion in the axial direction.
An image processing device comprising: an image reverse stabilization processing unit configured to decide a degree of an effect of expressing shaking to be added to an image on the basis of at least a size of a screen on which the image is displayed and a distance from an observer to the screen on which the image is displayed.
A moisture-sensitive multi-sensor interactive surface comprising: - a support (380, 480) made of an electrically nonconductive material having a first surface, - a set of elementary sensors, - a set of first contact elements, deposited on the first surface, and intended to be each connected to a pole of a power supply system, - a set of second contact elements, deposited on the first surface, and intended to be each connected to the input of an actuator, with each second contact element being associated with a first contact element so as to form an elementary sensor, with the first and second contact elements of an elementary sensor being separated by an electrically insulating track such that the presence of a given amount of moisture on the track causes electrical contact between the first and second contact elements. - a support (380, 480) made of an electrically nonconductive material having a first surface, - a set of elementary sensors, - a set of first contact elements, deposited on the first surface, and intended to be each connected to a pole of a power supply system, - a set of second contact elements, deposited on the first surface, and intended to be each connected to the input of an actuator, with each second contact element being associated with a first contact element so as to form an elementary sensor, with the first and second contact elements of an elementary sensor being separated by an electrically insulating track such that the presence of a given amount of moisture on the track causes electrical contact between the first and second contact elements.
Torsional oscillation damping device comprising: - a support that can be rotationally displaced about an axis, - at least one pendulous body comprising a first and a second pendulous weight spaced apart axially from one another and mobile relative to the support, the first pendulous weight being arranged axially on a first side of the support and the second pendulous weight being arranged axially on a second side of the support, and at least one link member linking the first and the second pendulous weights, pairing said weights, - at least one rolling member cooperating on the one hand with a rolling track defined by the support and on the other hand with at least one rolling track defined by the pendulous body to guide the displacement of the pendulous body relative to the support, and - at least one insertion part (30, 31), arranged so as to avoid any contact in the axial direction between one of said pendulous weights and at least one of the rolling member and the support, characterized in that the insertion part (30, 31) comprising: - an insertion portion configured to prevent said contact in the axial direction, and - at least one fixing portion on one of the pendulous weights or on one of the rolling member and the support, the fixing portion comprising at least two fixing tabs and a reinforcement linking these two tabs. - a support that can be rotationally displaced about an axis, - at least one pendulous body comprising a first and a second pendulous weight spaced apart axially from one another and mobile relative to the support, the first pendulous weight being arranged axially on a first side of the support and the second pendulous weight being arranged axially on a second side of the support, and at least one link member linking the first and the second pendulous weights, pairing said weights, - at least one rolling member cooperating on the one hand with a rolling track defined by the support and on the other hand with at least one rolling track defined by the pendulous body to guide the displacement of the pendulous body relative to the support, and - at least one insertion part (30, 31), arranged so as to avoid any contact in the axial direction between one of said pendulous weights and at least one of the rolling member and the support, characterized in that the insertion part (30, 31) comprising: - an insertion portion configured to prevent said contact in the axial direction, and - at least one fixing portion on one of the pendulous weights or on one of the rolling member and the support, the fixing portion comprising at least two fixing tabs and a reinforcement linking these two tabs. - an insertion portion configured to prevent said contact in the axial direction, and - at least one fixing portion on one of the pendulous weights or on one of the rolling member and the support, the fixing portion comprising at least two fixing tabs and a reinforcement linking these two tabs.
A random access method applied to a terminal, comprising: when non-contention random access is initiated and current uplink and downlink Band Width Parts, BWPs, are inconsistent with uplink and downlink BWPs configured by a base station for non-contention random access, setting, by the terminal, active BWPs as an uplink BWP and a downlink BWP having the same BWP-Identity, BWP-ID, and performing contention random access on the active BWPs; or setting, by the terminal, the active BWPs as the uplink BWP and the downlink BWP configured by the base station for non-contention random access, and performing the non-contention random access on the active BWPs, wherein the setting, by the terminal, the active BWPs to the uplink BWP and the downlink BWP having the same BWP-ID, and performing a contention random access on the active BWPs, comprises: receiving a BWP change command for changing the downlink BWP or changing the uplink BWP sent by the base station; changing the BWPs according to the BWP change command, determining the changed active BWPs, and if the BWP-IDs of the active uplink and downlink BWPs are different, setting the active BWPs as the currently activated uplink BWP and a downlink BWP with the same BWP-ID as the currently activated uplink BWP. when non-contention random access is initiated and current uplink and downlink Band Width Parts, BWPs, are inconsistent with uplink and downlink BWPs configured by a base station for non-contention random access, setting, by the terminal, active BWPs as an uplink BWP and a downlink BWP having the same BWP-Identity, BWP-ID, and performing contention random access on the active BWPs; or setting, by the terminal, the active BWPs as the uplink BWP and the downlink BWP configured by the base station for non-contention random access, and performing the non-contention random access on the active BWPs, wherein the setting, by the terminal, the active BWPs to the uplink BWP and the downlink BWP having the same BWP-ID, and performing a contention random access on the active BWPs, comprises: receiving a BWP change command for changing the downlink BWP or changing the uplink BWP sent by the base station; changing the BWPs according to the BWP change command, determining the changed active BWPs, and if the BWP-IDs of the active uplink and downlink BWPs are different, setting the active BWPs as the currently activated uplink BWP and a downlink BWP with the same BWP-ID as the currently activated uplink BWP.
Tool for actuating a locking latch locking a brake lining at a lining holder of a brake lining holder for a rail vehicle, having a lever handle, an actuating journal which is arranged at the lever handle and is insertable into a tool opening of the locking latch, characterized in that a guide element and a pivot axis arranged between the actuating journal and the guide element are arranged at the lever handle, wherein the guide element is guidable along a contour of the lining holder and wherein the guide element is positioned in relation to the actuating journal such that the tool can only be detached from the lining holder in a locking position of the locking latch. a lever handle, an actuating journal which is arranged at the lever handle and is insertable into a tool opening of the locking latch, characterized in that a guide element and a pivot axis arranged between the actuating journal and the guide element are arranged at the lever handle, wherein the guide element is guidable along a contour of the lining holder and wherein the guide element is positioned in relation to the actuating journal such that the tool can only be detached from the lining holder in a locking position of the locking latch.
Method for the formation of periodic structures in a thin material film by interfering pulsed laser beams, wherein the thin film is laid on a substrate having different optical properties than the thin film, the method comprising: - directing a plurality of pulsed laser beams into the thin film, whereby the pulsed laser beams are picosecond laser beams which intersect in such a way that they produce through interference a periodic laser beam intensity distribution, which can be varied depending on a choice of appropriate control parameters including the number of interfering laser beams and/or a phase difference between interfering laser beams and/or the intensity of each interfering laser beam, according to the periodic structure to be formed, - ablating the material of the thin film at the high-intensity zones of the laser beam intensity distribution, while the remaining material forms the periodic structure that corresponds to the layout of the low-intensity zones, characterised in that the choice of the appropriate control parameters is performed simultaneously with an adjustment of the overall intensity of the interfering laser beams in such a way that the threshold intensity I th for evaporation of the thin film over its entire thickness is from about 1.5 percents up to 50 percents of the intensity I 0 at the maximum of the high-intensity zone of the laser beam intensity distribution, ensuring evaporation of the thin film. - directing a plurality of pulsed laser beams into the thin film, whereby the pulsed laser beams are picosecond laser beams which intersect in such a way that they produce through interference a periodic laser beam intensity distribution, which can be varied depending on a choice of appropriate control parameters including the number of interfering laser beams and/or a phase difference between interfering laser beams and/or the intensity of each interfering laser beam, according to the periodic structure to be formed, - ablating the material of the thin film at the high-intensity zones of the laser beam intensity distribution, while the remaining material forms the periodic structure that corresponds to the layout of the low-intensity zones, characterised in that the choice of the appropriate control parameters is performed simultaneously with an adjustment of the overall intensity of the interfering laser beams in such a way that the threshold intensity I th for evaporation of the thin film over its entire thickness is from about 1.5 percents up to 50 percents of the intensity I 0 at the maximum of the high-intensity zone of the laser beam intensity distribution, ensuring evaporation of the thin film.
A method for detecting a target nucleic acid, comprising the steps of: mixing a nucleic acid probe and a sample to prepare a mixture; measuring fluorescence intensity from the mixture; and detecting the target nucleic acid based on the fluorescence intensity, wherein the target nucleic acid comprises a probe-binding region with which the nucleic acid probe hybridizes, and at least one terminal of the probe-binding region is a guanine, and one or more cytosines are present within 1 to 7 bases from the terminal guanine in the probe-binding region; wherein the nucleic acid probe comprises an oligonucleotide having a cytosine facing the terminal guanine and a fluorescent dye conjugated to the cytosine, the fluorescent dye being a fluorescent dye that is quenched by interaction with a guanine, wherein the oligonucleotide is complementary to the nucleic acid in the probe-binding region except for the cytosine that is present within 1 to 7 bases from the terminal guanine and that is closest to the terminal guanine, wherein the base in the oligonucleotide facing the cytosine closest to the terminal guanine is a base having no fluorescence-quenching effect; and wherein a decrease in fluorescence intensity of the nucleic acid probe which is not hybridized with the target nucleic acid is reduced compared to the case where the base in the oligonucleotide facing the cytosine closest to the terminal guanine would be a guanine. mixing a nucleic acid probe and a sample to prepare a mixture; measuring fluorescence intensity from the mixture; and detecting the target nucleic acid based on the fluorescence intensity, wherein the target nucleic acid comprises a probe-binding region with which the nucleic acid probe hybridizes, and at least one terminal of the probe-binding region is a guanine, and one or more cytosines are present within 1 to 7 bases from the terminal guanine in the probe-binding region; wherein the nucleic acid probe comprises an oligonucleotide having a cytosine facing the terminal guanine and a fluorescent dye conjugated to the cytosine, the fluorescent dye being a fluorescent dye that is quenched by interaction with a guanine, wherein the oligonucleotide is complementary to the nucleic acid in the probe-binding region except for the cytosine that is present within 1 to 7 bases from the terminal guanine and that is closest to the terminal guanine, wherein the base in the oligonucleotide facing the cytosine closest to the terminal guanine is a base having no fluorescence-quenching effect; and wherein a decrease in fluorescence intensity of the nucleic acid probe which is not hybridized with the target nucleic acid is reduced compared to the case where the base in the oligonucleotide facing the cytosine closest to the terminal guanine would be a guanine.
A heat ray-shielding film, characterized by containing a composite tungsten oxide particle having a hexagonal crystal structure, a selected wavelength absorbing material, a dispersant, an ultraviolet absorber, and a thermoplastic resin, wherein the composite tungsten oxide is expressed by a general formula MyWOz (wherein M is one or more kinds of element selected from Cs, Rb, K, Tl, In, Ba, Li, Ca, Sr, Fe, Sn, Al, and Cu, satisfying 0.1 ≤ y ≤0.5, 2.2 ≤ z ≤ 3.0), and wherein the selected wavelength absorbing material has a transmission profile in which a transmittance of a light of a wavelength of 420 nm can be set to 40% or less when a transmittance of a light of a wavelength of 550 nm is 90% or more, and a transmittance of a light of a wavelength of 460 nm is 90% or more, a content of the selected wavelength absorbing material in the heat ray-shielding film is 0.01 mass% or more and 2.0 mass% or less, the selected wavelength absorbing material is one or more kinds selected from a benzotriazole compound, and an indole compound, and the benzotriazole compound is expressed by [Chemical formula 1] or [Chemical formula 8], R1 in the benzotriazole compound expressed by [Chemical formula 1] is a group expressed by any one selected from [Chemical formula 2] to [Chemical formula 5], R2 in [Chemical formula 2] to [Chemical formula 5] is an alkylene group having 1 to 8 carbon atoms, R3 in [Chemical formula 2] to [Chemical formula 5] is a hydrogen atom or a methyl group, and R4 in [Chemical formula 4] is the alkylene group having 1 to 8 carbon atoms.
Method of MR imaging of a body of a patient positioned in an examination volume of an MR device, the method comprising the steps of: - acquiring first MR imaging data representative of at least one region of the body; - analyzing said first MR imaging data to delineate at least one anatomical structure within said body region; - acquiring second MR imaging data of said body region using a multi-point Dixon sequence; - deriving a B 0 map from said second MR imaging data: - analyzing said B 0 map to determine at least one low fidelity region of said B 0 map; - performing B 0 mapping to refine the B 0 map using a multi-acquisition gradient echo sequence, in particular a dual acquisition gradient echo sequence, restricted to at least one region where said delineated anatomical structure and said low fidelity region overlap completely or partially; and - correcting geometrical distortions in said first and/or second MR imaging data using the refined B 0 map. - acquiring first MR imaging data representative of at least one region of the body; - analyzing said first MR imaging data to delineate at least one anatomical structure within said body region; - acquiring second MR imaging data of said body region using a multi-point Dixon sequence; - deriving a B 0 map from said second MR imaging data: - analyzing said B 0 map to determine at least one low fidelity region of said B 0 map; - performing B 0 mapping to refine the B 0 map using a multi-acquisition gradient echo sequence, in particular a dual acquisition gradient echo sequence, restricted to at least one region where said delineated anatomical structure and said low fidelity region overlap completely or partially; and - correcting geometrical distortions in said first and/or second MR imaging data using the refined B 0 map.
A seat and storage system comprising: a seat that includes a seat back and a seat portion, wherein the seat includes first and second sides (12a, 12b), and a storage assembly that includes a storage portion and an extension portion, wherein the storage portion defines a storage interior with a storage opening and includes a cover that is movable between an open position and a closed position, wherein the storage opening is open to the first side of the seat, wherein the extension portion extends from the storage portion toward the second side of the seat, wherein the storage assembly defines a top surface, wherein the seat is secured to the top surface, and wherein the storage assembly defines an under seat cavity below a bottom surface of the extension portion. a seat that includes a seat back and a seat portion, wherein the seat includes first and second sides (12a, 12b), and a storage assembly that includes a storage portion and an extension portion, wherein the storage portion defines a storage interior with a storage opening and includes a cover that is movable between an open position and a closed position, wherein the storage opening is open to the first side of the seat, wherein the extension portion extends from the storage portion toward the second side of the seat, wherein the storage assembly defines a top surface, wherein the seat is secured to the top surface, and wherein the storage assembly defines an under seat cavity below a bottom surface of the extension portion.