mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile transport system , for the transportation of objects, in particular in a technical system, comprising a vehicle frame , a pair of first support wheels and a pair of second support wheels , which are rotatably mounted, a first drive wheel rotatable about a first drive axis running in a transverse direction (Y), a second drive wheel rotatable about a second drive axis running in the transverse direction (Y) and a swing frame pivotable relative to the vehicle frame about a swing axis , wherein the first support wheels are arranged on the vehicle frame and the second support wheels are arranged on the swing frame , and wherein a drive unit is arranged on the swing frame and has a drive frame , characterised in that the first drive wheel is rotatably mounted on a first swing arm pivotable relative to the drive frame about a first swing axis , and the second drive wheel is rotatably mounted on a second swing arm pivotable relative to the drive frame about a second swing axis , and in that the first swing arm and the second swing arm are coupled to one another via a coupling unit in such a manner that a pivot motion of the first swing arm about the first swing axis in a first pivot direction (A) effects a pivot motion of the second swing arm about the second swing axis in a second pivot direction (B) directed counter to the first pivot direction (A). a vehicle frame , a pair of first support wheels and a pair of second support wheels , which are rotatably mounted, a first drive wheel rotatable about a first drive axis running in a transverse direction (Y), a second drive wheel rotatable about a second drive axis running in the transverse direction (Y) and a swing frame pivotable relative to the vehicle frame about a swing axis , wherein the first support wheels are arranged on the vehicle frame and the second support wheels are arranged on the swing frame , and wherein a drive unit is arranged on the swing frame and has a drive frame , characterised in that the first drive wheel is rotatably mounted on a first swing arm pivotable relative to the drive frame about a first swing axis , and the second drive wheel is rotatably mounted on a second swing arm pivotable relative to the drive frame about a second swing axis , and in that the first swing arm and the second swing arm are coupled to one another via a coupling unit in such a manner that a pivot motion of the first swing arm about the first swing axis in a first pivot direction (A) effects a pivot motion of the second swing arm about the second swing axis in a second pivot direction (B) directed counter to the first pivot direction (A).
A computer-implemented method of training a generative neural network, the method comprising • generating an edge image using an edge detection applied to a digital image, the digital image comprising one or more digital objects, the edge image comprising a plurality of edge pixels determined as representing edges of the one or more digital objects in the digital image; • selecting edge-pixels from the plurality of edge pixels; • providing a segmentation image using the digital image, the segmentation image comprising one or more segments representing the one or more digital objects, wherein the segmentation image comprises a plurality of first pixels, the positions of the first pixels in the segmentation image corresponding to the positions of the selected edge-pixels in the edge image; • selecting one or more second pixels for each first pixel in the segmentation image; the method characterized in that it comprises: • generating a distorted segmentation image using a two-dimensional distortion applied to the segmentation image, wherein the two-dimensional distortion determines a pixel value of each pixel in the distorted segmentation image using the first pixels and the second pixels; and • training the generative neural network using the distorted segmentation image as input image to estimate the digital image. • generating an edge image using an edge detection applied to a digital image, the digital image comprising one or more digital objects, the edge image comprising a plurality of edge pixels determined as representing edges of the one or more digital objects in the digital image; • selecting edge-pixels from the plurality of edge pixels; • providing a segmentation image using the digital image, the segmentation image comprising one or more segments representing the one or more digital objects, wherein the segmentation image comprises a plurality of first pixels, the positions of the first pixels in the segmentation image corresponding to the positions of the selected edge-pixels in the edge image; • selecting one or more second pixels for each first pixel in the segmentation image; • generating a distorted segmentation image using a two-dimensional distortion applied to the segmentation image, wherein the two-dimensional distortion determines a pixel value of each pixel in the distorted segmentation image using the first pixels and the second pixels; and • training the generative neural network using the distorted segmentation image as input image to estimate the digital image.
A compound having the structure: wherein each of X, Y, and Z is, independently, N or CH; R 1 is H, optionally substituted C 1 -C 6 acyl, optionally substituted C 1 -C 6 alkyl, optionally substituted C 1 -C 6 heteroalkyl, optionally substituted C 2 -C 9 heterocyclyl, or -SO 2 R 6 ; each of R 2 , R 3 , and R 5 is, independently, H or optionally substituted C 1 -C 6 alkyl; R 4 is H, optionally substituted C 1 -C 6 alkyl, or optionally substituted C 1 -C 6 heteroalkyl; R 6 is optionally substituted C 1 -C 6 alkyl or -NR 7 R 8 ; each of R 7 and R 8 is, independently, optionally substituted C 1 -C 6 alkyl; Het is A is optionally substituted C 6 -C 10 arylene, optionally substituted C 2 -C 9 heterocyclylene, or optionally substituted C 2 -C 9 heteroarylene; L is absent, optionally substituted C 1 -C 6 alkylene, optionally substituted C 1 -C 6 heteroalkylene, or optionally substituted C 2 -C 6 alkenylene; and B is H, cyano, optionally substituted C 6 -C 10 aryl, optionally substituted C 2 -C 9 heterocyclyl, or optionally substituted C 2 -C 9 heteroaryl, or a pharmaceutically acceptable salt thereof. each of X, Y, and Z is, independently, N or CH; R 1 is H, optionally substituted C 1 -C 6 acyl, optionally substituted C 1 -C 6 alkyl, optionally substituted C 1 -C 6 heteroalkyl, optionally substituted C 2 -C 9 heterocyclyl, or -SO 2 R 6 ; each of R 2 , R 3 , and R 5 is, independently, H or optionally substituted C 1 -C 6 alkyl; R 4 is H, optionally substituted C 1 -C 6 alkyl, or optionally substituted C 1 -C 6 heteroalkyl; R 6 is optionally substituted C 1 -C 6 alkyl or -NR 7 R 8 ; each of R 7 and R 8 is, independently, optionally substituted C 1 -C 6 alkyl; Het is A is optionally substituted C 6 -C 10 arylene, optionally substituted C 2 -C 9 heterocyclylene, or optionally substituted C 2 -C 9 heteroarylene; L is absent, optionally substituted C 1 -C 6 alkylene, optionally substituted C 1 -C 6 heteroalkylene, or optionally substituted C 2 -C 6 alkenylene; and B is H, cyano, optionally substituted C 6 -C 10 aryl, optionally substituted C 2 -C 9 heterocyclyl, or optionally substituted C 2 -C 9 heteroaryl, or a pharmaceutically acceptable salt thereof.
A method of forming a coating comprising: disposing a substrate having a plurality of protrusions on a seal; depositing a topcoat in a soft unconverted state over the protrusions , the topcoat comprising segmented portions defining a plurality of faults extending from the plurality of protrusions through the topcoat , wherein depositing the topcoat over the plurality of protrusions forms a surface having a plurality of dimples , characterized by : creating a wear pattern of a channel in the topcoat during an initial rub event by rapidly accelerating the turbine during a green run by running the turbine up to a maximum power in a very short time, causing rubbing of the blade tip against the coating to form the channel having a depth that is less than a depth of the plurality of dimples ; and then converting the topcoat during a high-temperature event, wherein converting the topcoat comprises preserving the channel created during the initial rub event. disposing a substrate having a plurality of protrusions on a seal; depositing a topcoat in a soft unconverted state over the protrusions , the topcoat comprising segmented portions defining a plurality of faults extending from the plurality of protrusions through the topcoat , wherein depositing the topcoat over the plurality of protrusions forms a surface having a plurality of dimples , characterized by : creating a wear pattern of a channel in the topcoat during an initial rub event by rapidly accelerating the turbine during a green run by running the turbine up to a maximum power in a very short time, causing rubbing of the blade tip against the coating to form the channel having a depth that is less than a depth of the plurality of dimples ; and then converting the topcoat during a high-temperature event, wherein converting the topcoat comprises preserving the channel created during the initial rub event. creating a wear pattern of a channel in the topcoat during an initial rub event by rapidly accelerating the turbine during a green run by running the turbine up to a maximum power in a very short time, causing rubbing of the blade tip against the coating to form the channel having a depth that is less than a depth of the plurality of dimples ; and then converting the topcoat during a high-temperature event, wherein converting the topcoat comprises preserving the channel created during the initial rub event.
A method for providing a target aqueous urea composition with a target concentration urea, comprising the steps of: a) reacting CO 2 and NH 3 in a synthesis section to form a crude urea mixture ; b) separating the crude urea mixture in a first aqueous urea solution and a process condensate using a separating section ; c) passing the process condensate through a first desorption column to provide a first partially purified flow ; d) passing at least part of the first partially purified flow through a hydrolyser to provide a second partially purified flow ; e) passing the second partially purified flow through a second desorption column to provide a purified water flow ; f) optionally concentrating the first aqueous urea solution in a pre-evaporator to provide a concentrated second aqueous urea solution ; g) mixing the first aqueous urea solution and/or the second concentrated aqueous urea solution with at least part of the first partially purified flow and at least part of the purified water flow in such a ratio to provide a target aqueous urea composition with the target concentration urea. a) reacting CO 2 and NH 3 in a synthesis section to form a crude urea mixture ; b) separating the crude urea mixture in a first aqueous urea solution and a process condensate using a separating section ; c) passing the process condensate through a first desorption column to provide a first partially purified flow ; d) passing at least part of the first partially purified flow through a hydrolyser to provide a second partially purified flow ; e) passing the second partially purified flow through a second desorption column to provide a purified water flow ; f) optionally concentrating the first aqueous urea solution in a pre-evaporator to provide a concentrated second aqueous urea solution ; g) mixing the first aqueous urea solution and/or the second concentrated aqueous urea solution with at least part of the first partially purified flow and at least part of the purified water flow in such a ratio to provide a target aqueous urea composition with the target concentration urea.
An apparatus for inspecting a photomask using a light, comprising: an illumination source for generating the light which illuminates a target substrate ; objective optics for receiving and projecting the light which is reflected from the target substrate , the objective optics comprising: a first mirror which is arranged to receive and reflect the light which is reflected from the target substrate , a second mirror which is arranged to receive and reflect the light which is reflected by the first mirror , a third mirror which is arranged to receive and reflect the light which is reflected by the second mirror , and a segmented mirror which is arranged to receive and reflect the light which is reflected by the third mirror , the segmented mirror comprising at least two mirror segments , wherein a numerical aperture of the objective optics is at least 0.2; the apparatus further comprising at least one sensor for detecting the light which is projected by the objective optics ; characterized in that : the quantity of mirror segments equals the quantity of sensors . an illumination source for generating the light which illuminates a target substrate ; objective optics for receiving and projecting the light which is reflected from the target substrate , the objective optics comprising: a first mirror which is arranged to receive and reflect the light which is reflected from the target substrate , a second mirror which is arranged to receive and reflect the light which is reflected by the first mirror , a third mirror which is arranged to receive and reflect the light which is reflected by the second mirror , and a segmented mirror which is arranged to receive and reflect the light which is reflected by the third mirror , the segmented mirror comprising at least two mirror segments , wherein a numerical aperture of the objective optics is at least 0.2; a first mirror which is arranged to receive and reflect the light which is reflected from the target substrate , a second mirror which is arranged to receive and reflect the light which is reflected by the first mirror , a third mirror which is arranged to receive and reflect the light which is reflected by the second mirror , and a segmented mirror which is arranged to receive and reflect the light which is reflected by the third mirror , the segmented mirror comprising at least two mirror segments , wherein a numerical aperture of the objective optics is at least 0.2;
An image sensor comprising: a first substrate having a plurality of photoelectric transducers (PD) formed on the first substrate ; a second substrate having a pixel transistor (AMP) for each of sets of two or more of the photoelectric transducers (PD) as a constituent unit, the pixel transistor (AMP) being shared by the set and formed on the second substrate ; and a second wiring which is connected to a first wiring (D1) formed on the second substrate via one contact (Ct), and is connected to a plurality of first elements , the first wiring (D1) leading to a second element shared by a plurality of first elements among a plurality of elements formed on the first substrate , each of the plurality of first elements being formed for each of the photoelectric transducers (PD), characterized in that the first element includes an electrode connected to the photoelectric transducer (PD), and the second element includes a reference potential line supplied with a reference potential. a first substrate having a plurality of photoelectric transducers (PD) formed on the first substrate ; a second substrate having a pixel transistor (AMP) for each of sets of two or more of the photoelectric transducers (PD) as a constituent unit, the pixel transistor (AMP) being shared by the set and formed on the second substrate ; and a second wiring which is connected to a first wiring (D1) formed on the second substrate via one contact (Ct), and is connected to a plurality of first elements , the first wiring (D1) leading to a second element shared by a plurality of first elements among a plurality of elements formed on the first substrate , each of the plurality of first elements being formed for each of the photoelectric transducers (PD), characterized in that the first element includes an electrode connected to the photoelectric transducer (PD), and the second element includes a reference potential line supplied with a reference potential.
A method for dispensing atomic objects from a dispenser , the method comprising: sealing a reaction component at least partially coated with a composition comprising the atomic objects inside an oven with the oven disposed within a pressure-controlled chamber; with the oven disposed within a pressure-controlled chamber, heating the composition comprising the atomic objects to an atomizing reaction temperature to cause an atomizing chemical reaction to occur, wherein (a) the reaction component comprises a material that is a participant in the atomizing chemical reaction, (b) a result of the atomizing chemical reaction is elemental atomic objects deposited on a depositing surface within the oven, and (c) the atomizing reaction temperature is greater than a dispensing threshold temperature; allowing the oven to cool to below the dispensing threshold temperature; and characterised by heating the oven to a dispensing temperature to cause the elemental atomic objects to be dispensed from the oven through a dispensing aperture , wherein the dispensing temperature is less than or equal to the dispensing threshold temperature. sealing a reaction component at least partially coated with a composition comprising the atomic objects inside an oven with the oven disposed within a pressure-controlled chamber; with the oven disposed within a pressure-controlled chamber, heating the composition comprising the atomic objects to an atomizing reaction temperature to cause an atomizing chemical reaction to occur, wherein (a) the reaction component comprises a material that is a participant in the atomizing chemical reaction, (b) a result of the atomizing chemical reaction is elemental atomic objects deposited on a depositing surface within the oven, and (c) the atomizing reaction temperature is greater than a dispensing threshold temperature; allowing the oven to cool to below the dispensing threshold temperature; and characterised by heating the oven to a dispensing temperature to cause the elemental atomic objects to be dispensed from the oven through a dispensing aperture , wherein the dispensing temperature is less than or equal to the dispensing threshold temperature.
A topical pharmaceutical composition, comprising: a mucoadhesive polymer, and an anal dilator, in a non-aqueous vehicle; wherein the composition is an organogel; wherein the composition further comprises a local anesthetic; wherein the anal dilator is diltiazem or diltiazem hydrochloride; wherein the mucoadhesive polymer is one or more of sodium alginate, hydroxypropylmethylcellulose, hydroxyethylcellulose and hydroxypropylcellulose, wherein the composition includes 0.5% to 10% w/w of the mucoadhesive polymers hydroxypropylcellulose, hydroxyethylcellulose or a mixture thereof, and wherein the non-aqueous vehicle is substantially free of water. a mucoadhesive polymer, and an anal dilator, in a non-aqueous vehicle; wherein the composition is an organogel; wherein the composition further comprises a local anesthetic; wherein the anal dilator is diltiazem or diltiazem hydrochloride; wherein the mucoadhesive polymer is one or more of sodium alginate, hydroxypropylmethylcellulose, hydroxyethylcellulose and hydroxypropylcellulose, wherein the composition includes 0.5% to 10% w/w of the mucoadhesive polymers hydroxypropylcellulose, hydroxyethylcellulose or a mixture thereof, and wherein the non-aqueous vehicle is substantially free of water.
A machine for making straws, comprising: - a forming unit for forming a continuous tubular element (T); - a cutting unit for cutting the continuous tubular element (T) into tubular segments of predetermined length as the continuous tubular element (T) is fed longitudinally; - a transfer unit for the tubular elements , located downstream of the cutting unit and configured for transferring the segments from a longitudinal feed direction to a transverse feed direction; characterized in that the transfer unit comprises a support beam for the segments and at least one pushing element which is rotatable about an axis (X) parallel to the longitudinal feed direction and which has a contact portion designed to impact against each segment supported by the support beam to deflect the segment from the longitudinal feed direction to the transverse feed direction. - a forming unit for forming a continuous tubular element (T); - a cutting unit for cutting the continuous tubular element (T) into tubular segments of predetermined length as the continuous tubular element (T) is fed longitudinally; - a transfer unit for the tubular elements , located downstream of the cutting unit and configured for transferring the segments from a longitudinal feed direction to a transverse feed direction;
A computer implemented method of processing mesh data defining the spatial co-ordinates in a co-ordinate space of vertices of a mesh surface and texture co-ordinate data associating vertices of a mesh surface with locations in an image space of an image to be rendered onto the mesh surface, the method comprising: determining a mapping between the co-ordinate space of the mesh data and the image space of an image to be rendered onto the mesh surface (S4-3, S4-5, S4-6); the method being characterised in that it comprises: determining for each of the vertices of the mesh surface represented by mesh data, spatial error vectors identifying the differences in between spatial co-ordinates of vertices of the mesh surface as defined by the mesh data and the spatial co-ordinates of corresponding vertices in a mesh surface generated from an encoded representation of the mesh data (S4-2); and modifying texture co-ordinate data to associate vertices of the mesh with locations in image space which differ from the locations identified by the unmodified texture co-ordinate data by amounts corresponding to a mapping of the determined spatial error vector associated with a vertex to the image space in accordance with the determined mapping (S4-4, S4-7). determining a mapping between the co-ordinate space of the mesh data and the image space of an image to be rendered onto the mesh surface (S4-3, S4-5, S4-6); the method being characterised in that it comprises: determining for each of the vertices of the mesh surface represented by mesh data, spatial error vectors identifying the differences in between spatial co-ordinates of vertices of the mesh surface as defined by the mesh data and the spatial co-ordinates of corresponding vertices in a mesh surface generated from an encoded representation of the mesh data (S4-2); and modifying texture co-ordinate data to associate vertices of the mesh with locations in image space which differ from the locations identified by the unmodified texture co-ordinate data by amounts corresponding to a mapping of the determined spatial error vector associated with a vertex to the image space in accordance with the determined mapping (S4-4, S4-7). determining for each of the vertices of the mesh surface represented by mesh data, spatial error vectors identifying the differences in between spatial co-ordinates of vertices of the mesh surface as defined by the mesh data and the spatial co-ordinates of corresponding vertices in a mesh surface generated from an encoded representation of the mesh data (S4-2); and modifying texture co-ordinate data to associate vertices of the mesh with locations in image space which differ from the locations identified by the unmodified texture co-ordinate data by amounts corresponding to a mapping of the determined spatial error vector associated with a vertex to the image space in accordance with the determined mapping (S4-4, S4-7).
Use of a container to accommodate a chlorine-based liquid bleaching agent composition, said container comprising a resin composition comprising a polyester resin (A), a pigment (B) and a polyamide resin (C), wherein a content of the polyester resin (A) is 90 to 99 mass%, and a mass ratio [(B)/(C)] of the pigment (B) and the polyamide resin (C) is 1/99 to 20/80. wherein a content of the polyester resin (A) is 90 to 99 mass%, and a mass ratio [(B)/(C)] of the pigment (B) and the polyamide resin (C) is 1/99 to 20/80.