mhurhangee/patent-ind-claim-en huggingface dataset:
An x-ray system for imaging biopsy samples comprising: an x-ray apparatus comprising an x-ray source including a collimator , an x-ray detector , and an object support , wherein the collimator is adjustable to limit x-rays from the x-ray source to an area of the object support in which the biopsy samples are placed and to exclude at least a portion of the object support from the x-rays from the x-ray source ; and a controller coupled to the x-ray apparatus and a display including a user interface , wherein the controller is configured to adjust the collimator to an area defined on the user interface in which the biopsy samples are placed; wherein the controller is further operable to: acquire one or more images of a breast using the x-ray system ; display the one or more images of the breast on the display ; define the area on the one or more images on the display ; communicate the coordinates of the defined area to the collimator , wherein the collimator is adjustable to illuminate only the defined area corresponding to a field of view; and acquire one or more images of the biopsy samples . an x-ray apparatus comprising an x-ray source including a collimator , an x-ray detector , and an object support , wherein the collimator is adjustable to limit x-rays from the x-ray source to an area of the object support in which the biopsy samples are placed and to exclude at least a portion of the object support from the x-rays from the x-ray source ; and a controller coupled to the x-ray apparatus and a display including a user interface , wherein the controller is configured to adjust the collimator to an area defined on the user interface in which the biopsy samples are placed; wherein the controller is further operable to: acquire one or more images of a breast using the x-ray system ; display the one or more images of the breast on the display ; define the area on the one or more images on the display ; communicate the coordinates of the defined area to the collimator , wherein the collimator is adjustable to illuminate only the defined area corresponding to a field of view; and acquire one or more images of the biopsy samples . acquire one or more images of a breast using the x-ray system ; display the one or more images of the breast on the display ; define the area on the one or more images on the display ; communicate the coordinates of the defined area to the collimator , wherein the collimator is adjustable to illuminate only the defined area corresponding to a field of view; and acquire one or more images of the biopsy samples .
. A material set for 3-dimensional printing, comprising: a thermoplastic polymer powder having an average particle size from 20 μm to 200 μm; a conductive fusing agent composition comprising a transition metal; characterized in that the material set further comprises a nonconductive fusing agent composition comprising transition metal oxide bronze particles. a thermoplastic polymer powder having an average particle size from 20 μm to 200 μm; a conductive fusing agent composition comprising a transition metal; characterized in that the material set further comprises a nonconductive fusing agent composition comprising transition metal oxide bronze particles.
A process control method , comprising: receiving raw chromatography data directly obtained by chromatography, wherein the raw chromatography data represents a plurality of signals and is divided into a plurality of blocks, wherein each signal of the plurality of signals is associated with one of the plurality of blocks; processing the raw chromatography data by selecting a combination of a first block and a first signal from the raw chromatography data; generating processed chromatography data by applying a noise reduction data to the processed raw chromatography data; performing a transition analysis on the processed chromatography data, wherein performing the transition analysis includes: generating a curve using the processed chromatography data; generating performance parameters by analyzing the curve, the performance parameters including a maximum rate of change or a number of inflection points; and based on the performance parameters, generating transition data; generating an Individual chart, a Moving Range chart, or a Range chart based on the transition data; and generating performance data by applying a statistical process control to the Individual chart, Moving Range chart, or Range chart. receiving raw chromatography data directly obtained by chromatography, wherein the raw chromatography data represents a plurality of signals and is divided into a plurality of blocks, wherein each signal of the plurality of signals is associated with one of the plurality of blocks; processing the raw chromatography data by selecting a combination of a first block and a first signal from the raw chromatography data; generating processed chromatography data by applying a noise reduction data to the processed raw chromatography data; performing a transition analysis on the processed chromatography data, wherein performing the transition analysis includes: generating a curve using the processed chromatography data; generating performance parameters by analyzing the curve, the performance parameters including a maximum rate of change or a number of inflection points; and based on the performance parameters, generating transition data; generating a curve using the processed chromatography data; generating performance parameters by analyzing the curve, the performance parameters including a maximum rate of change or a number of inflection points; and based on the performance parameters, generating transition data; generating an Individual chart, a Moving Range chart, or a Range chart based on the transition data; and generating performance data by applying a statistical process control to the Individual chart, Moving Range chart, or Range chart.
Compositions comprising: a) isocyanurates comprising isocyanate groups and b) benzyl alkyl adipate, where the ratio by weight of a) to b) is in the range of 1:1 to 1:8, preferably of 1:1.2 to 1:4 and particularly preferably of 1:1.5 to 1:2.5. a) isocyanurates comprising isocyanate groups and b) benzyl alkyl adipate,
A method comprising: passing a feed fluid including a population of particles through at least one expanded polyparaxylylene polymer membrane such that at least a portion of the population of particles is separated from the feed fluid, wherein the expanded polyparaxyxlylene polymer membrane comprises a polyparaxylylene polymer film that has been expanded in one or more directions, wherein the polyparaxylylene polymer film is an unexpanded polyparaxylylene polymer, wherein the unexpanded polyparaxylylene polymer comprises or a combination thereof, wherein the at least one expanded polyparaxylylene polymer membrane has at least one of a PVA_20 less than about 0.6 cm 3 /m 2 and/or an mass/area (MPA) less than about 30 g/m 2 , wherein PVA_20 is the volume of pores smaller than 20 nm per unit membrane area (cm 3 /m 2 ), and wherein PVA_20 is defined by the following Equation: PVA _ 20 = Cumulative Pore Volume cm 3 / g , 20.065 nm * MPA g / m 2 .
An optical system (L0) consisting of a first lens unit (L1) having positive refractive power, a second lens unit (L2) having negative refractive power and configured to move in focusing, and a third lens unit (L3) having negative refractive power that are arranged in order from an object side to an image side, wherein a distance between adjacent two of the lens units changes in focusing, and characterized in that the optical system (L0) satisfies the following inequalities: 0.10 < TL3 / TL < 0.40 , 0.70 < SD3 / TL3 < 0.90 , 0.05 < DM3 / TL3 < 0.14 , and 0.45 < LD / f ≦ 0 .533 , where TL is a distance on an optical axis from a lens surface closest to the object side to a lens surface closest to the image side, TL3 is a distance on the optical axis from a lens surface closest to the object side in the third lens unit (L3) to a lens surface closest to the image side in the third lens unit (L3), SD3 is a sum of thicknesses, on the optical axis, of lenses in the third lens unit (L3), DM3 is the largest of the thicknesses, on the optical axis, of the lenses in the third lens unit (L3), LD is a distance on the optical axis from the lens surface closest to the object side to an image plane, and f is a focal length of the optical system at infinity focusing. wherein a distance between adjacent two of the lens units changes in focusing, and characterized in that the optical system (L0) satisfies the following inequalities: 0.10 < TL3 / TL < 0.40 , 0.70 < SD3 / TL3 < 0.90 , 0.05 < DM3 / TL3 < 0.14 , and 0.45 < LD / f ≦ 0 .533 , where TL is a distance on an optical axis from a lens surface closest to the object side to a lens surface closest to the image side, TL3 is a distance on the optical axis from a lens surface closest to the object side in the third lens unit (L3) to a lens surface closest to the image side in the third lens unit (L3), SD3 is a sum of thicknesses, on the optical axis, of lenses in the third lens unit (L3), DM3 is the largest of the thicknesses, on the optical axis, of the lenses in the third lens unit (L3), LD is a distance on the optical axis from the lens surface closest to the object side to an image plane, and f is a focal length of the optical system at infinity focusing.
A substrate holder (1, 1', 1", 1′′′, 1′′′′, 1′′′ʺ) for mounting a substrate , comprising fixing elements (6, 6', 6") for fixing the substrate , wherein the fixing elements (6, 6', 6") are grouped into zones , wherein the zones are arranged in the form of a circle, wherein a plurality of zones are located exclusively in the periphery of the substrate holder, and characterised in that the plurality of zones are separated from one another azimutally.
A composition comprising or consisting in a mixture of palmitoylethanolamide, curcumin or a plant extract belonging to genus Curcuma comprising curcumin, and piperine or a plant extract belonging to the Piperaceae family comprising piperine, for use in the treatment of hyperalgesia.
A crossing point detector, comprising: a memory adapted to store a captured image obtained by imaging a checker pattern; and a processor (1102; 2002, 2003, 2004) adapted to read out at least a partial image of the captured image from the memory as an image to process, and adapted to detect a crossing point of two boundary lines in the checker pattern depicted in the image to process, wherein each of the two boundary lines is a boundary line between a first region made up of multiple pixels having a first pixel value and a second region made up of multiple pixels having a second pixel value greater than the first pixel value in the image to process, the processor (1102; 2002, 2003, 2004) is adapted to decide multiple parameters of a numerical model, the parameters being parameters for optimizing an evaluation value based on a difference between respective pixel values represented by the numerical model and respective pixel values in the image to process, and is adapted to compute a position of a crossing point of two straight lines expressed by the decided multiple parameters, and thereby detects with subpixel precision the crossing point of the two boundary lines in the image to process, characterized in that the numerical model is a model that simulates a pixel integration effect when imaging a step edge by assigning pixel values to respective regions inside a pixel divided by a straight line, and deciding a pixel value of the overall pixel. a memory adapted to store a captured image obtained by imaging a checker pattern; and a processor (1102; 2002, 2003, 2004) adapted to read out at least a partial image of the captured image from the memory as an image to process, and adapted to detect a crossing point of two boundary lines in the checker pattern depicted in the image to process, wherein each of the two boundary lines is a boundary line between a first region made up of multiple pixels having a first pixel value and a second region made up of multiple pixels having a second pixel value greater than the first pixel value in the image to process, the processor (1102; 2002, 2003, 2004) is adapted to decide multiple parameters of a numerical model, the parameters being parameters for optimizing an evaluation value based on a difference between respective pixel values represented by the numerical model and respective pixel values in the image to process, and is adapted to compute a position of a crossing point of two straight lines expressed by the decided multiple parameters, and thereby detects with subpixel precision the crossing point of the two boundary lines in the image to process, characterized in that the numerical model is a model that simulates a pixel integration effect when imaging a step edge by assigning pixel values to respective regions inside a pixel divided by a straight line, and deciding a pixel value of the overall pixel.
A light emitting device comprising: a first lead frame and a second lead frame spaced apart from each other, the first and second lead frames each comprising a top surface, an opposing bottom surface; a facing region where the first and second lead frames face each other; fixing spaces formed at the facing region and at regions adjacent to opposite side edges of the respective first and second lead frames , the opposite side edges being connected to an edge of the first lead frame or the second lead frame which is adjacent to the facing region; inclined surfaces formed on sidewalls of the fixing spaces ; a light emitting diode chip mounted on the first lead frame ; wherein the inclined surfaces comprise inclined portions formed on sidewalls of the fixing space formed at the facing region and inclined surfaces formed on sidewalls of the fixing spaces formed at the regions adjacent opposite side edges of the respective first and second lead frames , an area of a lower portion of each of the fixing spaces is greater than an upper portion of each of the fixing spaces , and the fixing space formed at the facing region is connected to the fixing spaces formed at the regions adjacent to the opposite side edges of the respective first and second lead frames . a first lead frame and a second lead frame spaced apart from each other, the first and second lead frames each comprising a top surface, an opposing bottom surface; a facing region where the first and second lead frames face each other; fixing spaces formed at the facing region and at regions adjacent to opposite side edges of the respective first and second lead frames , the opposite side edges being connected to an edge of the first lead frame or the second lead frame which is adjacent to the facing region; inclined surfaces formed on sidewalls of the fixing spaces ; a light emitting diode chip mounted on the first lead frame ; wherein the inclined surfaces comprise inclined portions formed on sidewalls of the fixing space formed at the facing region and inclined surfaces formed on sidewalls of the fixing spaces formed at the regions adjacent opposite side edges of the respective first and second lead frames , an area of a lower portion of each of the fixing spaces is greater than an upper portion of each of the fixing spaces , and the fixing space formed at the facing region is connected to the fixing spaces formed at the regions adjacent to the opposite side edges of the respective first and second lead frames .
A method, performed by a network node , for handling a link switch of a wireless device from a source link to a target link, the network node and the wireless device operating in a wireless communications network , the method comprising: - given a first configuration of the target link indicating resources for the wireless device to perform random access to the network node during the link switch from the source link to the target link, - transmitting , prior to the link switch, an indication to the wireless device , the indication indicating an update to the first configuration, and - changing the first configuration of the target link, based on the update indicated by the transmitted indication, wherein the changing is performed only after receiving a confirmation of at least one of: a) from the wireless device , that the wireless device has received the indication, and b) from a first network node operating in the wireless communications network , that the first network node has transmitted the indication to the wireless device . - given a first configuration of the target link indicating resources for the wireless device to perform random access to the network node during the link switch from the source link to the target link, - transmitting , prior to the link switch, an indication to the wireless device , the indication indicating an update to the first configuration, and - changing the first configuration of the target link, based on the update indicated by the transmitted indication, wherein the changing is performed only after receiving a confirmation of at least one of: a) from the wireless device , that the wireless device has received the indication, and b) from a first network node operating in the wireless communications network , that the first network node has transmitted the indication to the wireless device . a) from the wireless device , that the wireless device has received the indication, and b) from a first network node operating in the wireless communications network , that the first network node has transmitted the indication to the wireless device .
A compound of formula (IIB) or an N -oxide thereof, or a pharmaceutically acceptable salt or solvate thereof, or a co-crystal thereof: wherein E represents -O-, -CH 2 - or -C(O)-; Q represents -CH 2 -; Z represents hydrogen or methyl; V represents C-R 22 or N; R 12 represents hydrogen, fluoro, chloro, trifluoromethyl, methyl or ethoxycarbonylethyl; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy(C 1-6 )alkyl; or R 21 represents (C 3-7 )heterocycloalkyl or (C 4-9 )heterobicycloalkyl, either of which groups may be optionally substituted by one, two or three substituents independently selected from trifluoromethyl, hydroxy, C 1-6 alkylsulphonyl, oxo, carboxy and C 2-6 alkoxycarbonyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy. E represents -O-, -CH 2 - or -C(O)-; Q represents -CH 2 -; Z represents hydrogen or methyl; V represents C-R 22 or N; R 12 represents hydrogen, fluoro, chloro, trifluoromethyl, methyl or ethoxycarbonylethyl; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy(C 1-6 )alkyl; or R 21 represents (C 3-7 )heterocycloalkyl or (C 4-9 )heterobicycloalkyl, either of which groups may be optionally substituted by one, two or three substituents independently selected from trifluoromethyl, hydroxy, C 1-6 alkylsulphonyl, oxo, carboxy and C 2-6 alkoxycarbonyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy.
A method of configuring a network of a power transmitting unit, PTU, the method comprising: determining whether a neighboring PTU is operating in a master mode; determining an operation mode of a PTU based on the determining whether the neighboring PTU is operating in the master mode; setting a network between the PTU and the neighboring PTU based on the operation mode of the PTU; and setting an index for either one or both of the PTU and the neighboring PTU, wherein the determining of the operation mode of the PTU comprises: setting the operation mode of the PTU to a slave mode in response to determining that the neighboring PTU is operating in the master mode; and setting the operation mode of the PTU to a master mode in response to determining that the neighboring PTU is not operating in the master mode, wherein the index refers to an indication for numbering a slave device, and wherein the slave device is synchronized to a sequential order of frequency hopping of a master device. determining whether a neighboring PTU is operating in a master mode; determining an operation mode of a PTU based on the determining whether the neighboring PTU is operating in the master mode; setting a network between the PTU and the neighboring PTU based on the operation mode of the PTU; and setting an index for either one or both of the PTU and the neighboring PTU, wherein the determining of the operation mode of the PTU comprises: setting the operation mode of the PTU to a slave mode in response to determining that the neighboring PTU is operating in the master mode; and setting the operation mode of the PTU to a master mode in response to determining that the neighboring PTU is not operating in the master mode, wherein the index refers to an indication for numbering a slave device, and wherein the slave device is synchronized to a sequential order of frequency hopping of a master device. setting the operation mode of the PTU to a slave mode in response to determining that the neighboring PTU is operating in the master mode; and setting the operation mode of the PTU to a master mode in response to determining that the neighboring PTU is not operating in the master mode, wherein the index refers to an indication for numbering a slave device, and wherein the slave device is synchronized to a sequential order of frequency hopping of a master device.
A process for making a silica-based glass composition, which includes the steps of: (a) providing input raw materials including a glass network former and gas releasing glass network modifiers to form a glass precursor melt; (b) providing additional raw materials including an additional non-gas releasing glass network former and non-gas releasing glass network modifiers; (c) melting and reacting said input raw materials to form said glass precursor melt having a temperature in the range of 900 °C to 1700 °C and having a viscosity of not more than 30 Pa·s, (d) refining said glass precursor melt; and then (e) adding said additional raw materials to said refined glass precursor melt to form a final silica-based glass composition, wherein all gas releasing glass network modifiers required to form said final silica-based glass composition in step (e) are provided in step (a). (a) providing input raw materials including a glass network former and gas releasing glass network modifiers to form a glass precursor melt; (b) providing additional raw materials including an additional non-gas releasing glass network former and non-gas releasing glass network modifiers; (c) melting and reacting said input raw materials to form said glass precursor melt having a temperature in the range of 900 °C to 1700 °C and having a viscosity of not more than 30 Pa·s, (d) refining said glass precursor melt; and then (e) adding said additional raw materials to said refined glass precursor melt to form a final silica-based glass composition,