mhurhangee/patent-ind-claim-en huggingface dataset:
A containment apparatus for enclosing a metallic fastener extending through a structure , comprising: a cap member and an uncured sealant comprising a first wall member which defines a first cavity and a first end , wherein the first end defines a first opening adapted to provide access into the first cavity for at least a portion of the metallic fastener , whereby the uncured sealant is received in the first cavity ; a second wall member is secured to and extends from an exterior surface of the first wall member , wherein: the second wall member extends spaced apart from and along the first wall member to a first end ; and the second wall member surrounds the first wall member such that first wall member and second wall member form a second cavity positioned between the first wall member and the second wall member , whereby the uncured sealant is received in the second cavity ; and the first end of the first wall member and the first end of the second wall member are coplanar with one another, whereby the uncured sealant positioned within the first cavity (20, when cured, secures the cap member to the structure and the uncured sealant positioned within the second cavity , when cured, further secures the cap member to the structure. a first wall member which defines a first cavity and a first end , wherein the first end defines a first opening adapted to provide access into the first cavity for at least a portion of the metallic fastener , whereby the uncured sealant is received in the first cavity ; a second wall member is secured to and extends from an exterior surface of the first wall member , wherein: the second wall member extends spaced apart from and along the first wall member to a first end ; and the second wall member surrounds the first wall member such that first wall member and second wall member form a second cavity positioned between the first wall member and the second wall member , whereby the uncured sealant is received in the second cavity ; and the first end of the first wall member and the first end of the second wall member are coplanar with one another, whereby the uncured sealant positioned within the first cavity (20, when cured, secures the cap member to the structure and the uncured sealant positioned within the second cavity , when cured, further secures the cap member to the structure. the second wall member extends spaced apart from and along the first wall member to a first end ; and the second wall member surrounds the first wall member such that first wall member and second wall member form a second cavity positioned between the first wall member and the second wall member , whereby the uncured sealant is received in the second cavity ; and the first end of the first wall member and the first end of the second wall member are coplanar with one another, whereby the uncured sealant positioned within the first cavity (20, when cured, secures the cap member to the structure and the uncured sealant positioned within the second cavity , when cured, further secures the cap member to the structure.
A resin formed article consisting of: a hydrogenated syndiotactic crystalline dicyclopentadiene ring-opening polymer comprising a repeating unit derived from dicyclopentadiene in a ratio of 90 wt% or more relative to all repeating units with an initial melting temperature of 265°C or higher, a melting point of lower than 280°C, as determined by heating at 320°C for 10 minutes, then cooled at 10°C/minute to room temperature to crystallize, and then measured using differential scanning calorimetry whilst heating at 10°C/minute, where the initial melting temperature is defined as the start temperature for the endothermic peak observed at the time of the measurement during heating, and the melting point is defined as the temperature at which the endothermic enthalpy was the largest, and a syndiotacticity of higher than 90%, as determined by substituting a peak area value of the signal derived from the meso diad at 43.35 ppm and a peak area value of the signal derived from the racemo diad at 43.43 ppm into the following formula I in the 13 C-NMR spectrum measured at 200°C in a o-chlorobenzene-d 4 /trichlorobenzene mixed solvent, racemo diad / meso diad + racemo diad × 100 % , optionally an inorganic filler, and optionally an additive selected from the group consisting of an antioxidant, a UV absorber, a light stabilizer, a near-infrared absorber, a plasticizer, an antistatic agent, an acid scavenger, a flame retardant, and a flame retardant promoter. a hydrogenated syndiotactic crystalline dicyclopentadiene ring-opening polymer comprising a repeating unit derived from dicyclopentadiene in a ratio of 90 wt% or more relative to all repeating units with an initial melting temperature of 265°C or higher, a melting point of lower than 280°C, as determined by heating at 320°C for 10 minutes, then cooled at 10°C/minute to room temperature to crystallize, and then measured using differential scanning calorimetry whilst heating at 10°C/minute, where the initial melting temperature is defined as the start temperature for the endothermic peak observed at the time of the measurement during heating, and the melting point is defined as the temperature at which the endothermic enthalpy was the largest, and a syndiotacticity of higher than 90%, as determined by substituting a peak area value of the signal derived from the meso diad at 43.35 ppm and a peak area value of the signal derived from the racemo diad at 43.43 ppm into the following formula I in the 13 C-NMR spectrum measured at 200°C in a o-chlorobenzene-d 4 /trichlorobenzene mixed solvent, racemo diad / meso diad + racemo diad × 100 % , optionally an inorganic filler, and optionally an additive selected from the group consisting of an antioxidant, a UV absorber, a light stabilizer, a near-infrared absorber, a plasticizer, an antistatic agent, an acid scavenger, a flame retardant, and a flame retardant promoter.
A pharmaceutical formulation for rectal administration containing budesonide or a pharmaceutically tolerable salt thereof and at least 80wt.% of a solid fat or a mixture of various solid fats based on the total weight of the formulation as well as at least one antioxidant tolerable therewith, characterized in that the antioxidant is ascorbyl palmitate.
A method for synthesizing a cracked product, having a lower number of carbon atoms relative to a starting compound, the method comprising: (a) dehydrating the starting compound comprising an alpha hydroxy group, substituted at an alpha carbon atom with respect to a first carbonyl group, and a beta hydroxy group, substituted at a beta carbon atom with respect to the first carbonyl group, to form a dicarbonyl intermediate by transformation of the alpha hydroxy group to a second carbonyl group and removal of the beta hydroxy group; (b) cracking the dicarbonyl intermediate to produce a cracked product having fewer carbon atoms relative to the dicarbonyl intermediate and a second cracked product; wherein said cracked product having fewer carbon atoms relative to the dicarbonyl intermediate is pyruvate; and said starting compound and said second cracked product are respectively 2,3,4-trihydroxybutanoate and formaldehyde, 2,3-dihydroxy-4-oxobutanoic acid and formic acid, tartrate and formic acid, 2,3,4,5-tetrahydroxypentanoate and 2-hydroxyacetaldehyde, 2,3,4-trihydroxy-5-oxopentanoate and oxalaldehyde, or 2,3,4-trihydroxypentanedioate and 2-oxoacetate; and (c) hydrogenating the cracked product to produce an end product, having the first carbonyl group and an adjacent hydroxy group, resulting from hydrogenation of the second carbonyl group; wherein said end product is lactate. (a) dehydrating the starting compound comprising an alpha hydroxy group, substituted at an alpha carbon atom with respect to a first carbonyl group, and a beta hydroxy group, substituted at a beta carbon atom with respect to the first carbonyl group, to form a dicarbonyl intermediate by transformation of the alpha hydroxy group to a second carbonyl group and removal of the beta hydroxy group; (b) cracking the dicarbonyl intermediate to produce a cracked product having fewer carbon atoms relative to the dicarbonyl intermediate and a second cracked product; wherein said cracked product having fewer carbon atoms relative to the dicarbonyl intermediate is pyruvate; and said starting compound and said second cracked product are respectively 2,3,4-trihydroxybutanoate and formaldehyde, 2,3-dihydroxy-4-oxobutanoic acid and formic acid, tartrate and formic acid, 2,3,4,5-tetrahydroxypentanoate and 2-hydroxyacetaldehyde, 2,3,4-trihydroxy-5-oxopentanoate and oxalaldehyde, or 2,3,4-trihydroxypentanedioate and 2-oxoacetate; and said cracked product having fewer carbon atoms relative to the dicarbonyl intermediate is pyruvate; and said starting compound and said second cracked product are respectively 2,3,4-trihydroxybutanoate and formaldehyde, 2,3-dihydroxy-4-oxobutanoic acid and formic acid, tartrate and formic acid, 2,3,4,5-tetrahydroxypentanoate and 2-hydroxyacetaldehyde, 2,3,4-trihydroxy-5-oxopentanoate and oxalaldehyde, or 2,3,4-trihydroxypentanedioate and 2-oxoacetate; and (c) hydrogenating the cracked product to produce an end product, having the first carbonyl group and an adjacent hydroxy group, resulting from hydrogenation of the second carbonyl group; wherein said end product is lactate.
A dual lens driving apparatus comprising: a housing ; a first bobbin disposed in the housing ; a second bobbin disposed in the housing and spaced apart from the first bobbin ; a first coil disposed on the first bobbin ; a second coil disposed on the second bobbin ; a magnet disposed on the housing and facing the first coil and the second coil ; a base disposed below the housing ; a substrate comprising a circuit member having a third coil disposed between the housing and the base to face the magnet ; and a support member movably supporting the housing with respect to the substrate , wherein the third coil comprises a first axial coil disposed along a first direction, and a second axial coil disposed along a second direction different from the first direction, wherein the first axial coil comprises four first axial coil units each spaced apart, wherein the four first axial coil units are mutually connected, wherein the second axial coil comprises four second axial coil units each mutually spaced apart, wherein the four second axial coil units are mutually connected, and wherein the first axial coil moves the magnet to the second direction and the second axis coil moves the magnet to the first direction. a housing ; a first bobbin disposed in the housing ; a second bobbin disposed in the housing and spaced apart from the first bobbin ; a first coil disposed on the first bobbin ; a second coil disposed on the second bobbin ; a magnet disposed on the housing and facing the first coil and the second coil ; a base disposed below the housing ; a substrate comprising a circuit member having a third coil disposed between the housing and the base to face the magnet ; and a support member movably supporting the housing with respect to the substrate , wherein the third coil comprises a first axial coil disposed along a first direction, and a second axial coil disposed along a second direction different from the first direction, wherein the first axial coil comprises four first axial coil units each spaced apart, wherein the four first axial coil units are mutually connected, wherein the second axial coil comprises four second axial coil units each mutually spaced apart, wherein the four second axial coil units are mutually connected, and wherein the first axial coil moves the magnet to the second direction and the second axis coil moves the magnet to the first direction.
A multi-core processor for dynamically setting a supply voltage and a clock frequency which has several processor elements , wherein at least one processor core , an internal memory , a switching network and a level converter are arranged in every processor element in a voltage-variable region , characterised in that a local queue memory is arranged in the voltage-variable region of the processor element for storing events to be processed by the processor core , wherein a number of events to be processed stored in the local queue memory is determined, in that the local queue memory is connected to the processor core , the internal memory and the level converter , in that a local clock generator for setting a required clock frequency f for every cycle is arranged in every processor core , in that the processor core is connected to the switching network setting a required supply voltage U for every cycle for connecting the processor core to one of several available supply voltage lines of a supply voltage network , in that the supply voltage network is connected to a supply voltage unit for providing several voltages and in that every processor core is adapted so that the setting of the required supply voltage U and the required clock frequency f for every cycle controlled by the processor core of the respective processor element is carried out as a function of a determination of a number of events stored in an internal queue memory and to be processed, and in that a resetting of the set supply voltage U and the clock frequency f is carried out after a processing of the events to be processed in the current cycle by the processor core, wherein the resetting is to a smaller or the smallest provided supply voltage U 1 and the smallest provided frequency f 1 .
A method for assembling a fabric annular band (FA), comprising a first hem (O1) and a second hem (O2), and a knitted article (M), having a body (C) and two leg pieces (G), said body ending with an open edge (MA) intended to be joined to the annular band (FA) along the first hem (O1); the method comprising the following steps: loading an annular band (FA) onto a loading form having an approximately cylindrical outer loading surface extending around a central rotation axis (C-C) of the loading form , said loading surface being delimited between a first border (75.1) and a second border (75.2); wherein the annular band (FA) is released onto the loading form so that the first hem (O1) of the annular band (FA) is near the first border (75.1) of the loading surface; loading a portion of the body (C) of the knitted article (M) around the loading form superimposed on the annular band (FA), with the open edge (MA) aligned with the first hem (O1) of the annular band (FA); joining together the first hem (O1) of the annular band (FA) and the open edge (MA) of the body (C); and unloading, from the loading form , the knitted article (M) with the annular band (FA) sewn thereto. loading an annular band (FA) onto a loading form having an approximately cylindrical outer loading surface extending around a central rotation axis (C-C) of the loading form , said loading surface being delimited between a first border (75.1) and a second border (75.2); wherein the annular band (FA) is released onto the loading form so that the first hem (O1) of the annular band (FA) is near the first border (75.1) of the loading surface; loading a portion of the body (C) of the knitted article (M) around the loading form superimposed on the annular band (FA), with the open edge (MA) aligned with the first hem (O1) of the annular band (FA); joining together the first hem (O1) of the annular band (FA) and the open edge (MA) of the body (C); and unloading, from the loading form , the knitted article (M) with the annular band (FA) sewn thereto.
An optical element having a non-uniform first surface comprising a plurality of sectors having differing radius of curvature such that the first surface comprises a plurality of peaks and troughs, a second surface , and a side wall structure between the first and second surfaces, wherein the side wall structure has an internally reflecting profile having a curvature such that optical radiation incident on the first surface at an angle less than or equal to an acceptance angle and then incident on the side wall structure is internally reflected to the second surface by the side wall structure , wherein, in a first cross section of the optical element , the side wall structure has a first internally reflecting profile and the first surface has a first cross sectional profile, and in a second cross section that is rotated around a rotation axis relative to the first cross section , wherein the rotation axis is the optical axis of the optical element and/or an axis passing through the centres of the first and second surfaces , the side wall structure has a second internally reflecting profile and the first surface has a second cross sectional profile, wherein the second internally reflecting profile of the side wall structure and the second cross sectional profile of the first surface are different from the first internally reflecting profile of the side wall structure and the first cross sectional profile of the first surface , respectively; wherein the first and second cross sections have the same fixed height (H tot ); an acceptance angle of the optical element in the first cross section differs to the acceptance angle of the optical element in the second cross section ; and a curvature of the first surface in the first cross section is/are different from a curvature of the first surface _in the second cross section . the first and second cross sections have the same fixed height (H tot ); an acceptance angle of the optical element in the first cross section differs to the acceptance angle of the optical element in the second cross section ; and a curvature of the first surface in the first cross section is/are different from a curvature of the first surface _in the second cross section .
Modified mesenchymal stem/stromal cells (MSC) for use in a method of treating a subject prenatally diagnosed as having hemophilia, the method comprising injecting said modified MSC into the subject in utero, wherein the modified MSC are modified, via introduction of a transgene or genome editing, to express high levels of Factor VIII protein or high levels of both Factor VIII protein and von Willebrand factor (vWF) protein, wherein the Factor VIII gene sequence comprises one or more genetic modifications that increase protein expression, protein stability, or both, and wherein the modified MSC are c-kit expressing modified placental tissue MSC.
A damage identification result optimization method, applied to processing of a single image, the method comprising: acquiring (S3100) a vehicle damage image inputted by a user; on the basis of a previously trained damage identification model, extracting (S320) image feature information, and determining a damage identification result corresponding to the vehicle damage image, the damage identification result comprising at least a damage box; displaying (S330) the damage identification result to the user, and receiving a modification made by the user to the damage identification result; and obtaining (S340) an optimized damage identification result by inputting the damage identification result, the image feature information, and the modification to a previously trained long short-term memory (LSTM) network, wherein the damage identification model is previously trained on the basis of the following steps: acquiring a plurality of historical vehicle damage images labeled with damage identification results; and on the basis of a convolutional neural network (CNN), using the plurality of historical vehicle damage images as training samples to train the damage identification model. acquiring (S3100) a vehicle damage image inputted by a user; on the basis of a previously trained damage identification model, extracting (S320) image feature information, and determining a damage identification result corresponding to the vehicle damage image, the damage identification result comprising at least a damage box; displaying (S330) the damage identification result to the user, and receiving a modification made by the user to the damage identification result; and obtaining (S340) an optimized damage identification result by inputting the damage identification result, the image feature information, and the modification to a previously trained long short-term memory (LSTM) network, wherein the damage identification model is previously trained on the basis of the following steps: acquiring a plurality of historical vehicle damage images labeled with damage identification results; and on the basis of a convolutional neural network (CNN), using the plurality of historical vehicle damage images as training samples to train the damage identification model. acquiring a plurality of historical vehicle damage images labeled with damage identification results; and on the basis of a convolutional neural network (CNN), using the plurality of historical vehicle damage images as training samples to train the damage identification model.
Catheter to be inserted into a hollow organ of a human or an animal, comprising a forwardly projecting catheter tip , wherein a region encased by an expandable tubular hollow body is arranged behind the catheter tip , wherein a wire helix is arranged in the encased region, wherein the wire helix consists of radiopaque material, and wherein a plurality of adjacent windings of the wire helix are arranged abutting one another and thus form a radiopaque region of the catheter and further adjacent windings are arranged without touching and spaced apart for producing a radiolucent region (20.2, 20.4) of the wire helix , and the wire helix is arranged within a hollow shaft of the catheter arranged within the encased region, and characterised in that the hollow shaft is fitted to the wire helix such that an outer surface (30.1) of the hollow shaft substantially corresponds to an outer contour of the wire helix .