mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining a trajectory of a motorized X-ray imaging system for acquiring images of a patient to whom a phantom comprising radiopaque fiducials having a known spatial arrangement has been attached so as to be visible on at least one 2D image of a body region of interest (ROI) acquired by the X-ray imaging system, the method comprising the following steps: - acquiring one first 2D image of the phantom by the X-ray imaging system in a given position; - detecting the fiducials of the phantom in said acquired first image; - based on said detected fiducials , determining the position of the phantom in a referential of the X-ray imaging system; - determining a set of positions of the X-ray imaging system adapted to acquire a set of 2D X-ray images of the region of interest such that said set of 2D X-ray images complies with at least one imposed requirement on the position of the phantom relative to a part of said images of said set of images, - combining said set of determined positions to determine a trajectory of the X-ray imaging system with respect to the position of the phantom . - acquiring one first 2D image of the phantom by the X-ray imaging system in a given position; - detecting the fiducials of the phantom in said acquired first image; - based on said detected fiducials , determining the position of the phantom in a referential of the X-ray imaging system; - determining a set of positions of the X-ray imaging system adapted to acquire a set of 2D X-ray images of the region of interest such that said set of 2D X-ray images complies with at least one imposed requirement on the position of the phantom relative to a part of said images of said set of images, - combining said set of determined positions to determine a trajectory of the X-ray imaging system with respect to the position of the phantom .
A method for scheduling request, SR, transmission, the method being applied to a terminal device and comprising: in response to K SR configurations comprising at least one first SR configuration that satisfies a first preset condition, transmitting first SR information corresponding to the at least one first SR configuration through a first uplink channel, wherein the first uplink channel is a physical uplink control channel, PUCCH, carrying channel state information, CSI, time-domain resources of K PUCCHs overlap with time-domain resources of the first uplink channel, the K PUCCHs are configured to carry SR information corresponding to the K SR configurations, and K is a positive integer, and the first preset condition comprises a priority of the PUCCH corresponding to the at least one first SR configuration being equal to a priority of the first uplink channel; the method further comprises: in response to the K SR configurations comprising a third SR configuration that satisfies a second preset condition, and a third SR corresponding to the third SR configuration being positive, transmitting third SR information corresponding to the third SR configuration through a PUCCH corresponding to the third SR configuration in the K PUCCHs, and stopping transmission of the first uplink channel from a time-domain resource occupied by the PUCCH corresponding to the third SR configuration, wherein the second preset condition comprises a priority of the PUCCH corresponding to the third SR configuration being higher than the priority of the first uplink channel. in response to K SR configurations comprising at least one first SR configuration that satisfies a first preset condition, transmitting first SR information corresponding to the at least one first SR configuration through a first uplink channel, wherein the first uplink channel is a physical uplink control channel, PUCCH, carrying channel state information, CSI, time-domain resources of K PUCCHs overlap with time-domain resources of the first uplink channel, the K PUCCHs are configured to carry SR information corresponding to the K SR configurations, and K is a positive integer, and the first preset condition comprises a priority of the PUCCH corresponding to the at least one first SR configuration being equal to a priority of the first uplink channel; the method further comprises: in response to the K SR configurations comprising a third SR configuration that satisfies a second preset condition, and a third SR corresponding to the third SR configuration being positive, transmitting third SR information corresponding to the third SR configuration through a PUCCH corresponding to the third SR configuration in the K PUCCHs, and stopping transmission of the first uplink channel from a time-domain resource occupied by the PUCCH corresponding to the third SR configuration, wherein the second preset condition comprises a priority of the PUCCH corresponding to the third SR configuration being higher than the priority of the first uplink channel.
A light-emitting diode device, comprising: a light-emitting diode ; and an optical component positioned so that light exiting the light-emitting diode passes through the optical component, the optical component including: a matrix material ; and a plurality of coated color-converting particles disposed in the matrix material such that the matrix material surrounds the coated color-converting particles individually, with individual coated color-converting particles of the plurality of coated color-converting particles having a particle core and a coating generally surrounding the particle core, wherein individual particle cores of the plurality of coated color-converting particles include a solid mass of a color-converting material, and individual coatings of the plurality of coated color-converting particles include a parylene. a light-emitting diode ; and an optical component positioned so that light exiting the light-emitting diode passes through the optical component, the optical component including: a matrix material ; and a plurality of coated color-converting particles disposed in the matrix material such that the matrix material surrounds the coated color-converting particles individually, a matrix material ; and a plurality of coated color-converting particles disposed in the matrix material such that the matrix material surrounds the coated color-converting particles individually, with individual coated color-converting particles of the plurality of coated color-converting particles having a particle core and a coating generally surrounding the particle core, wherein individual particle cores of the plurality of coated color-converting particles include a solid mass of a color-converting material, and individual coatings of the plurality of coated color-converting particles include a parylene.
A two aerosol can injection system, comprising: a first aerosol can containing product and propellant; a second aerosol can containing activator or hardener; and a connector (E) connected at a first end to said first aerosol can and at a second end to said second aerosol can , wherein said connector (E) comprises a first, external thread valve connected to said first aerosol can , and a second, internal thread valve connected to said second aerosol can , characterized in that said connector (E) further comprises a first male valve connected to said first, external thread valve and a second male valve connected to said second, internal thread valve . a first aerosol can containing product and propellant; a second aerosol can containing activator or hardener; and a connector (E) connected at a first end to said first aerosol can and at a second end to said second aerosol can , wherein said connector (E) comprises a first, external thread valve connected to said first aerosol can , and a second, internal thread valve connected to said second aerosol can , characterized in that said connector (E) further comprises a first male valve connected to said first, external thread valve and a second male valve connected to said second, internal thread valve .
A zinc anode material for a secondary cell, comprising: a zinc-containing active material comprising at least a coating layer, wherein a coating composition of the coating layer contains at least one oxide of a metal selected from titanium (Ti), zirconium (Zr), magnesium (Mg), tin (Sn) and yttrium (Y); characterized in that a surface localization ratio of the coating composition represented by the following Equation ranges from 1.6 to 16: Surface Localizatiion Ratio of Coating Composition = Surface Metal Atomic Ratio of Coating Composition Bulk Metal Atomic Ratio of Coating Composition wherein the surface metal atomic ratio of the coating composition is represented by the following Equation , and the bulk metal atomic ratio of the coating composition is represented by the following Equation : Surface Metal Atomic of Coating Composition = Metal Amount in Surface Coating Composition / mol ⁢ % Metal Amount in Surface Coating Compsition + Surface Zn Amount / mol ⁢ % Bulk Metal Atomic Ratio of Coating Composition = Metal Amount in Coating Composition / mol Metal Amount in Coating Composition + Zn Amount / mol the surface metal atomic ratio being determined by XPS using a 300 W monochromatic Al-Kα ray (1486.6 eV) as an X-ray source, at a photoelectron take-off angle of 45°, a measurement depth of approximately 5 nm and a measurement area φ of 800 μm; and wherein a thickness of the coating layer ranges from 5 to 500 nm. a zinc-containing active material comprising at least a coating layer, wherein a coating composition of the coating layer contains at least one oxide of a metal selected from titanium (Ti), zirconium (Zr), magnesium (Mg), tin (Sn) and yttrium (Y); characterized in that a surface localization ratio of the coating composition represented by the following Equation ranges from 1.6 to 16: Surface Localizatiion Ratio of Coating Composition = Surface Metal Atomic Ratio of Coating Composition Bulk Metal Atomic Ratio of Coating Composition wherein the surface metal atomic ratio of the coating composition is represented by the following Equation , and the bulk metal atomic ratio of the coating composition is represented by the following Equation : Surface Metal Atomic of Coating Composition = Metal Amount in Surface Coating Composition / mol ⁢ % Metal Amount in Surface Coating Compsition + Surface Zn Amount / mol ⁢ % Bulk Metal Atomic Ratio of Coating Composition = Metal Amount in Coating Composition / mol Metal Amount in Coating Composition + Zn Amount / mol the surface metal atomic ratio being determined by XPS using a 300 W monochromatic Al-Kα ray (1486.6 eV) as an X-ray source, at a photoelectron take-off angle of 45°, a measurement depth of approximately 5 nm and a measurement area φ of 800 μm; and wherein a thickness of the coating layer ranges from 5 to 500 nm.
Remotely operated underwater vehicle carried shell picker device for harvesting shells from the seabed, the shell picker unit device comprising a collecting unit and a shell picker unit , wherein the collecting unit of the shell picker device is mounted to a lower side of an underbody/framework of a remotely operated underwater vehicle by means of a connection device , wherein the remotely operated underwater vehicle is operable to move the shell picker device over the seabed by means of propulsion means , wherein only the shell picker unit is in contact with the seabed harvesting the shells to the collecting unit when the shell picker device is moved forwards by the remotely operated underwater vehicle , and wherein a device is arranged to the shell picker unit , exterior of the collecting unit and arranged such that it with its longitudinal direction extends transversally of an open end of the collecting unit , in front of this and with a fixed distance above a body of the shell picker unit , which device is arranged for moving shells harvested by the shell picker unit into the collecting unit and holding the harvested shells in place in the collecting unit .
A method of determining a measure of wave speed in a fluid flowing through a fluid conduit , the method comprising: using ultrasound measurements to determine the conduit diameter (D) or conduit cross-sectional area (A), as a function of time, at a longitudinal position of the conduit; using ultrasound measurements to determine a measure of fluid velocity, as a function of time, in a volume element at said longitudinal position of the conduit, the ultrasound measurements to determine the measure of fluid velocity being effected by decorrelation of scattering objects within the fluid flow in successive frames sampling the volume element, in which the fluid velocity is determined using speckle decorrelation velocimetry; determining the measure of wave speed from a function of (i) the change in the measure of fluid velocity at the longitudinal position as a function of time and (ii) the change in the conduit diameter (D) or conduit cross-sectional area (A), as a function of time. using ultrasound measurements to determine the conduit diameter (D) or conduit cross-sectional area (A), as a function of time, at a longitudinal position of the conduit; using ultrasound measurements to determine a measure of fluid velocity, as a function of time, in a volume element at said longitudinal position of the conduit, the ultrasound measurements to determine the measure of fluid velocity being effected by decorrelation of scattering objects within the fluid flow in successive frames sampling the volume element, in which the fluid velocity is determined using speckle decorrelation velocimetry; determining the measure of wave speed from a function of (i) the change in the measure of fluid velocity at the longitudinal position as a function of time and (ii) the change in the conduit diameter (D) or conduit cross-sectional area (A), as a function of time.
A piezoelectric element comprising: a first electrode formed on a substrate ; a piezoelectric layer formed on the first electrode and composed of a complex oxide having a perovskite structure containing potassium (K), sodium (Na), niobium (Nb), and manganese (Mn), wherein the perovskite structure is represented by a general formula of ABO 3 and wherein an A-site element is present in excess relative to a B-site element, wherein the amount of the excess is 4 to 6%; and a second electrode formed on the piezoelectric layer, wherein the manganese includes divalent manganese (Mn 2+ ), trivalent manganese(Mn 3+ ), and tetravalent manganese (Mn 4+ ); a molar ratio of the divalent manganese to a sum of the trivalent manganese and the tetravalent manganese (Mn 2+ /(Mn 3+ + Mn 4+ )) is 1 or more and 10 or less; characterized in that a molar ratio of the potassium to the sodium (K/Na) at the surface of the piezoelectric layer , measured by X-ray photoelectron spectroscopy (XPS), is 0.8 to 1.1. a first electrode formed on a substrate ; a piezoelectric layer formed on the first electrode and composed of a complex oxide having a perovskite structure containing potassium (K), sodium (Na), niobium (Nb), and manganese (Mn), wherein the perovskite structure is represented by a general formula of ABO 3 and wherein an A-site element is present in excess relative to a B-site element, wherein the amount of the excess is 4 to 6%; and a second electrode formed on the piezoelectric layer, wherein the manganese includes divalent manganese (Mn 2+ ), trivalent manganese(Mn 3+ ), and tetravalent manganese (Mn 4+ ); a molar ratio of the divalent manganese to a sum of the trivalent manganese and the tetravalent manganese (Mn 2+ /(Mn 3+ + Mn 4+ )) is 1 or more and 10 or less; characterized in that a molar ratio of the potassium to the sodium (K/Na) at the surface of the piezoelectric layer , measured by X-ray photoelectron spectroscopy (XPS), is 0.8 to 1.1.
Use of a limited digestion with a proteolytic enzyme of a multispecific antibody for the analysis of the multispecific antibody's light chain pairing, wherein the proteolytic enzyme is Lys-C, and wherein the incubating is for 35 to 45 minutes.
Analytical test tape , in particular for use in a test tape cassette , having a carrier tape that can be wound onto a spool and a plurality of test elements that are distributed on the carrier tape in the tape longitudinal direction and have a spreading fabric for applying body fluid and an underlying reagent layer for detecting an analyte in the body fluid, wherein the spreading fabric is formed from fabric threads that are crossed in a grid shape, wherein the bending stiffness of the spreading fabric is sectionally modified so that the bending stiffness is high in the tape transverse direction and low in the tape longitudinal direction, wherein the bending stiffness is modified by one of the following possibilities: - the use of fabric threads of different thicknesses in appropriate areas of the fabric; - the additional coating in certain areas of the fabric threads ; - the thinning or local weakening of one or more fabric threads ; - the use of multifilament fabric threads . - the use of fabric threads of different thicknesses in appropriate areas of the fabric; - the additional coating in certain areas of the fabric threads ; - the thinning or local weakening of one or more fabric threads ; - the use of multifilament fabric threads .
A method for producing a steel sheet having a microstructure consisting of between 71% and 91% of the sum of martensite and bainite, between 9% and 13% of retained austenite, and at most 20% of ferrite, wherein the method comprises the following successive steps: - providing a cold-rolled steel sheet, the chemical composition of the steel containing in weight %: 0.13% ≤ C ≤ 0.22% 1.2% ≤ Si ≤ 2.3% 0.02% ≤ Al ≤ 1.0%, with 1.25% ≤ Si+Al ≤ 2.35%, 2.4% ≤ Mn ≤ 3%, Ti ≤ 0.05 % Nb ≤ 0.05 % the remainder being Fe and unavoidable impurities, - annealing the steel sheet at an annealing temperature T A so as to obtain a structure comprising from 80% to 100% of austenite and from 0% to 20% of ferrite, - quenching the sheet at a cooling rate comprised between 20°C/s and 50°C/s down to a quenching temperature QT between 240°C and 270°C, - heating the sheet up to a partitioning temperature PT between 440°C and 460°C and maintaining the sheet at the partitioning temperature PT for a partitioning time Pt between 50 s and 250 s, - immediately after the maintaining step, cooling the sheet down to the room temperature at a cooling speed higher than 1°C/s, preferably between 2°C/s and 20°C/s. - providing a cold-rolled steel sheet, the chemical composition of the steel containing in weight %: 0.13% ≤ C ≤ 0.22% 1.2% ≤ Si ≤ 2.3% 0.02% ≤ Al ≤ 1.0%, with 1.25% ≤ Si+Al ≤ 2.35%, 2.4% ≤ Mn ≤ 3%, Ti ≤ 0.05 % Nb ≤ 0.05 % the remainder being Fe and unavoidable impurities, 0.13% ≤ C ≤ 0.22% 1.2% ≤ Si ≤ 2.3% 0.02% ≤ Al ≤ 1.0%, 2.4% ≤ Mn ≤ 3%, Ti ≤ 0.05 % Nb ≤ 0.05 % - annealing the steel sheet at an annealing temperature T A so as to obtain a structure comprising from 80% to 100% of austenite and from 0% to 20% of ferrite, - quenching the sheet at a cooling rate comprised between 20°C/s and 50°C/s down to a quenching temperature QT between 240°C and 270°C, - heating the sheet up to a partitioning temperature PT between 440°C and 460°C and maintaining the sheet at the partitioning temperature PT for a partitioning time Pt between 50 s and 250 s, - immediately after the maintaining step, cooling the sheet down to the room temperature at a cooling speed higher than 1°C/s, preferably between 2°C/s and 20°C/s.
A light emitting arrangement arranged and configured to realize antifouling of a protected surface to be immersed, at least during a part of the lifetime thereof, in a fouling liquid containing biofouling organisms, the light emitting arrangement comprising: - an optical medium and a light source for emitting anti-fouling light, the optical medium comprising material that is configured to allow at least part of the anti-fouling light to distribute through the optical medium , - wherein the optical medium comprises an emission surface for emitting the anti-fouling light in a direction away from the protected surface when the light emitting arrangement is in an operational position with respect to the protected surface , and a back surface for facing the protected surface , and - wherein the light emitting arrangement comprises a group of three zones covered by anti-fouling light from the light source , namely a first zone which is arranged and configured to predominantly make the anti-fouling light reflect in a specular manner towards the emission surface of the optical medium , through the optical medium , a second zone which is arranged and configured to predominantly realize propagation of the anti-fouling light through the optical medium by total internal reflection, and a third zone which is arranged and configured to predominantly make the anti-fouling light scatter out of the optical medium, through the emission surface of the optical medium , the first zone being closer to the light source than the second zone , and the second zone being closer to the light source than the third zone . - an optical medium and a light source for emitting anti-fouling light, the optical medium comprising material that is configured to allow at least part of the anti-fouling light to distribute through the optical medium , - wherein the optical medium comprises an emission surface for emitting the anti-fouling light in a direction away from the protected surface when the light emitting arrangement is in an operational position with respect to the protected surface , and a back surface for facing the protected surface , and - wherein the light emitting arrangement comprises a group of three zones covered by anti-fouling light from the light source , namely a first zone which is arranged and configured to predominantly make the anti-fouling light reflect in a specular manner towards the emission surface of the optical medium , through the optical medium , a second zone which is arranged and configured to predominantly realize propagation of the anti-fouling light through the optical medium by total internal reflection, and a third zone which is arranged and configured to predominantly make the anti-fouling light scatter out of the optical medium, through the emission surface of the optical medium , the first zone being closer to the light source than the second zone , and the second zone being closer to the light source than the third zone .