mhurhangee/patent-ind-claim-en huggingface dataset:
A turbojet engine fan blade , the fan blade having a radially inner extremity and a radially outer extremity, the fan blade comprising: a blade root defining the radially inner extremity, and a blade tip defining the radially outer extremity, characterised by : a platform located between the blade root and a body of the blade , the platform having an axially protruding end; a leading edge extending radially between the extremities; and a sheath extending continuously over the leading edge and the axially protruding end from the blade root to the blade tip . a platform located between the blade root and a body of the blade , the platform having an axially protruding end; a leading edge extending radially between the extremities; and a sheath extending continuously over the leading edge and the axially protruding end from the blade root to the blade tip .
An apparatus, comprising: a memory controller (204; 404) to interface with a multi-level memory (200; 400), the multi-level memory comprising a near memory (201; 401) and a far memory (202; 402), the memory controller (204; 404) to maintain first and second caches, the first cache (203; 403) to cache pages recently accessed from the far memory (202; 402), the second cache (205; 405) to cache addresses of pages recently accessed from the far memory (202; 402), the second cache (205; 405) having a first level (206; 406) and a second level (207; 407), the first level (206; 406) to cache addresses of pages that are more recently accessed from the far memory (202; 402) than pages whose respective addresses are cached in the second level (207; 407), the memory controller (204; 404) to inform system software of a) below: a) that a first page whose address travels a threshold number of round trips between the first and second levels of the second cache (205; 405) is a candidate for migration from the far memory (202; 402) to the near memory (201; 401). a) that a first page whose address travels a threshold number of round trips between the first and second levels of the second cache (205; 405) is a candidate for migration from the far memory (202; 402) to the near memory (201; 401).
A composite manufacturing system (100;202) comprising: a robotic arm (106;212); and a trimming system (110;210) connected to the robotic arm, the trimming system (110;210) comprising: a knife having a blade , the blade comprising a first side having a double-beveled shape, and a second side opposite the first side having a planar shape, wherein the second side of the blade is configured to trim the uncured composite structure (112;204); a rotation device configured to rotate the blade of the knife about a center point ; a number of lasers configured to determine a position of the blade relative to a desired position for the blade; and a load cell associated with the knife and configured to sense an amount of force applied to the blade during trimming of an uncured composite structure (112;204). a robotic arm (106;212); and a trimming system (110;210) connected to the robotic arm, the trimming system (110;210) comprising: a knife having a blade , the blade comprising a first side having a double-beveled shape, and a second side opposite the first side having a planar shape, wherein the second side of the blade is configured to trim the uncured composite structure (112;204); a rotation device configured to rotate the blade of the knife about a center point ; a number of lasers configured to determine a position of the blade relative to a desired position for the blade; and a load cell associated with the knife and configured to sense an amount of force applied to the blade during trimming of an uncured composite structure (112;204). a knife having a blade , the blade comprising a first side having a double-beveled shape, and a second side opposite the first side having a planar shape, wherein the second side of the blade is configured to trim the uncured composite structure (112;204); a rotation device configured to rotate the blade of the knife about a center point ; a number of lasers configured to determine a position of the blade relative to a desired position for the blade; and a load cell associated with the knife and configured to sense an amount of force applied to the blade during trimming of an uncured composite structure (112;204).
A mounting structure for a concentrator photovoltaic module housing configured to be used in a concentrator photovoltaic module , the concentrator photovoltaic module including: a plurality of power generating elements ; and a concentrating member configured to concentrate sunlight toward each of the plurality of power generating elements , the mounting structure comprising: a bottom plate formed from an electric conductor and having the plurality of power generating elements arrayed thereat; a side wall frame made of resin, the side wall frame standing along an outer edge of the bottom plate and configured to hold the concentrating member so as to face the bottom plate ; a support member being a grounded electric conductor, the support member configured to be in contact with the bottom plate to support the concentrator photovoltaic module ; and a fastening member configured to fasten the support member and the bottom plate to each other thereby to fix the concentrator photovoltaic module to the support member , the fastening member being formed from an electric conductor thereby to serve as a path for electric connection from the bottom plate to the support member , wherein the fastening member includes: a bolt configured to penetrate the bottom plate and the support member ; and a nut configured to be screwed with the bolt to fasten the bottom plate and the support member , wherein a holding portion holding the nut or a head of the bolt inside the housing and at an inner face of the bottom plate is formed integrally with an inner face of the side wall frame . a bottom plate formed from an electric conductor and having the plurality of power generating elements arrayed thereat; a side wall frame made of resin, the side wall frame standing along an outer edge of the bottom plate and configured to hold the concentrating member so as to face the bottom plate ; a support member being a grounded electric conductor, the support member configured to be in contact with the bottom plate to support the concentrator photovoltaic module ; and a fastening member configured to fasten the support member and the bottom plate to each other thereby to fix the concentrator photovoltaic module to the support member , the fastening member being formed from an electric conductor thereby to serve as a path for electric connection from the bottom plate to the support member , wherein the fastening member includes: a bolt configured to penetrate the bottom plate and the support member ; and a nut configured to be screwed with the bolt to fasten the bottom plate and the support member , wherein a bolt configured to penetrate the bottom plate and the support member ; and a nut configured to be screwed with the bolt to fasten the bottom plate and the support member , wherein a holding portion holding the nut or a head of the bolt inside the housing and at an inner face of the bottom plate is formed integrally with an inner face of the side wall frame .
A flexible container carrier for unitizing a plurality of containers comprising: a plurality of flexible bands that form two longitudinal rows of container receiving apertures , wherein the flexible bands in a center of the carrier are wider than the flexible bands along outer edges of the carrier; two center apertures formed between the two longitudinal rows of container receiving apertures ; a set of perforations formed on each side of each center aperture ; and a handle formed along each longitudinal edge of the array of container receiving apertures ; characterized in that each center aperture is asymmetric relative to a transverse axis of the carrier; and in that the flexible container further comprises a notch positioned at each distal end of each center aperture , the notch generally longitudinally aligned with each set of perforations . a plurality of flexible bands that form two longitudinal rows of container receiving apertures , wherein the flexible bands in a center of the carrier are wider than the flexible bands along outer edges of the carrier; two center apertures formed between the two longitudinal rows of container receiving apertures ; a set of perforations formed on each side of each center aperture ; and a handle formed along each longitudinal edge of the array of container receiving apertures ;
Connecting element for providing a connection between a sill and a jamb of a frame, which connecting element comprises a first part with first material properties and a second part with second material properties, which second material properties differ from the first material properties, wherein the second part is connected inseparably to the first part , so that the first part and the second part cannot be separated from each other without damaging the first part and/or the second part , wherein the second part is adapted to form a seal between the first part and the jamb , wherein the connecting element is formed from an inseparable, composite material, which composite material is composed of a first base material with the first material properties for forming the first part and a second base material with the second material properties for forming the second part , wherein a boundary layer between connecting surfaces of the first part and the second part is not flat and/or smooth, because, during composing of the composite material, when the second base material is pressed onto the first base material, the second base material is pressed into the first base material to some extent. wherein the second part is connected inseparably to the first part , so that the first part and the second part cannot be separated from each other without damaging the first part and/or the second part , wherein the second part is adapted to form a seal between the first part and the jamb , wherein the connecting element is formed from an inseparable, composite material, which composite material is composed of a first base material with the first material properties for forming the first part and a second base material with the second material properties for forming the second part , wherein a boundary layer between connecting surfaces of the first part and the second part is not flat and/or smooth, because, during composing of the composite material, when the second base material is pressed onto the first base material, the second base material is pressed into the first base material to some extent.
A method of producing ferrochromium by granulation of a melt comprising the steps of: providing a ferrochromium melt having the following composition in weight %: C 1-9 Cr 25-70 Si ≤ 2.0 Fe balance apart from not more than 3 % of other elements, feeding the melt to a distribution unit, wherein the distribution unit includes a rotating distributor positioned above the cooling water and wherein the rotating distributor comprises an upper inlet opening, sidewalls, a bottom and at least one row of openings at the lower end of the sidewalls, wherein the openings in the sidewalls have a size of at least 5 mm in the smallest dimension, subjecting the melt to granulation by disintegrating the melt above and/or within cooling water held in a cooling tank, solidifying the disintegrated melt within the cooling water, thereby obtaining a granulated ferrochromium material having a mean size in the range of 12-50 mm, wherein the amount of fines having a size of less than 4 mm is limited to ≤ 7%. providing a ferrochromium melt having the following composition in weight %: C 1-9 Cr 25-70 Si ≤ 2.0 Fe balance apart from not more than 3 % of other elements, C 1-9 Cr 25-70 Si ≤ 2.0 Fe balance apart from not more than 3 % of other elements, feeding the melt to a distribution unit, wherein the distribution unit includes a rotating distributor positioned above the cooling water and wherein the rotating distributor comprises an upper inlet opening, sidewalls, a bottom and at least one row of openings at the lower end of the sidewalls, wherein the openings in the sidewalls have a size of at least 5 mm in the smallest dimension, subjecting the melt to granulation by disintegrating the melt above and/or within cooling water held in a cooling tank, solidifying the disintegrated melt within the cooling water, thereby obtaining a granulated ferrochromium material having a mean size in the range of 12-50 mm, wherein the amount of fines having a size of less than 4 mm is limited to ≤ 7%.
A laser device comprising: a laser unit that outputs laser light; an output end that launches the laser light; and a first fusion splice portion (P1) and a second fusion splice portion (P2), each having a configuration in which two multi-mode fibers (F1, F2) each having a core through which the laser light propagates and a cladding surrounding the core are fusion-spliced to each other, wherein when a side closer to the laser unit is an upstream side and a side closer to the output end is a downstream side, the first fusion splice portion (P1) is located on an upstream side of the second fusion splice portion (P2), the laser device characterized in that : at least a part of the core in the first fusion splice portion (P1) contains a dopant that is the same type as a dopant contained in the cladding in the first fusion splice portion (P1) for decreasing a refractive index, the core in the first fusion splice portion (P1) and the core in the second fusion splice portion (P2) have different refractive index profiles, and in the first fusion splice portion (P1), a difference in refractive index between an adjusting portion in the core that is disposed along an outer peripheral surface of the core and a central part of the core is 0.05% or greater. a laser unit that outputs laser light; an output end that launches the laser light; and a first fusion splice portion (P1) and a second fusion splice portion (P2), each having a configuration in which two multi-mode fibers (F1, F2) each having a core through which the laser light propagates and a cladding surrounding the core are fusion-spliced to each other, wherein when a side closer to the laser unit is an upstream side and a side closer to the output end is a downstream side, the first fusion splice portion (P1) is located on an upstream side of the second fusion splice portion (P2), the laser device characterized in that : at least a part of the core in the first fusion splice portion (P1) contains a dopant that is the same type as a dopant contained in the cladding in the first fusion splice portion (P1) for decreasing a refractive index, the core in the first fusion splice portion (P1) and the core in the second fusion splice portion (P2) have different refractive index profiles, and in the first fusion splice portion (P1), a difference in refractive index between an adjusting portion in the core that is disposed along an outer peripheral surface of the core and a central part of the core is 0.05% or greater. at least a part of the core in the first fusion splice portion (P1) contains a dopant that is the same type as a dopant contained in the cladding in the first fusion splice portion (P1) for decreasing a refractive index, the core in the first fusion splice portion (P1) and the core in the second fusion splice portion (P2) have different refractive index profiles, and in the first fusion splice portion (P1), a difference in refractive index between an adjusting portion in the core that is disposed along an outer peripheral surface of the core and a central part of the core is 0.05% or greater.
Method for processing a measured-value signal representing a value determined in an analogue manner for the output current of a converter, wherein the measured-value signals detected by a sensor, which in particular comprises a shunt resistor, are supplied to a respective processing channel having at least one delta-sigma modulator, wherein the measured-value signal is supplied to the delta-sigma modulator, which provides a bit stream, specifically a single-bit data stream, at its output, wherein the bit stream is supplied to a first digital filter, which converts the bit stream into a stream of digital intermediate words, i.e. a multi-bit data stream, wherein the first digital filter has a number n of accumulators, in particular integrators, arranged in series, wherein n is 3, wherein the bit stream is clocked at a clock frequency f S , i.e. with a clock period T S = 1/f S , wherein the stream of digital intermediate words is clocked and thus updated at a clock frequency fs, i.e. with the clock period T S = 1/f S , wherein the output signal of the first digital filter is supplied to a second digital filter, wherein the second digital filter has the difference (D) between a first and a second result data word stream as the output data word stream, wherein the first and second result data word streams are determined from the intermediate data word stream over a first and second time range, wherein the first and second time ranges are arranged in an interval T1, wherein the first result data word stream is determined from the intermediate data word stream as a discrete-time differential of the (n-1)th order having the time scale T D and wherein the second result data word stream is determined from the intermediate data word stream as a discrete-time differential of the (n-1)th order having the time scale T D , wherein T1 is greater than double T D or equal to double T D .
A solid electrolyte composition comprising: an inorganic solid electrolyte (A) having conductivity of ions of metals belonging to Group I or II of the periodic table; a binder (B); and a dispersion medium (C), wherein the dispersion medium (C) includes an alicyclic compound (C1) optionally comprising halogen atoms and not comprising any other heteroatoms, and a boiling point of the alicyclic compound (C1) at 760 mmHg is 110°C or higher and 180°C or lower. an inorganic solid electrolyte (A) having conductivity of ions of metals belonging to Group I or II of the periodic table; a binder (B); and a dispersion medium (C), wherein the dispersion medium (C) includes an alicyclic compound (C1) optionally comprising halogen atoms and not comprising any other heteroatoms, and a boiling point of the alicyclic compound (C1) at 760 mmHg is 110°C or higher and 180°C or lower.
An electronic device , comprising: a housing structure including a first housing , a second housing , and a hinge housing ; a hinge structure at least partially disposed in the hinge housing and configured to connect at least part of the first housing and at least part of the second housing to allow the first housing and the second housing to be folded or unfolded, with a folding axis (F) therebetween; a display extending from the first housing to the second housing across the hinge housing, the display including a surface defining at least portion of a front surface of the electronic device when the first housing and the second housing are unfolded; and a protective structure disposed at an edge of the hinge housing, wherein the protective structure includes: a fixed part disposed in the hinge housing; guide parts disposed in the first housing and the second housing , respectively; and moving parts including cover portions configured to cover at least parts of a periphery of the surface of the display , wherein the moving parts are configured to be movable relative to the guide parts and the fixed part wherein gap (G1, G2, G3) between the surface of the display and the cover portions is adapted to change according to folding of the first housing and the second housing along the folding axis (F). a housing structure including a first housing , a second housing , and a hinge housing ; a hinge structure at least partially disposed in the hinge housing and configured to connect at least part of the first housing and at least part of the second housing to allow the first housing and the second housing to be folded or unfolded, with a folding axis (F) therebetween; a display extending from the first housing to the second housing across the hinge housing, the display including a surface defining at least portion of a front surface of the electronic device when the first housing and the second housing are unfolded; and a protective structure disposed at an edge of the hinge housing, wherein the protective structure includes: a fixed part disposed in the hinge housing; guide parts disposed in the first housing and the second housing , respectively; and moving parts including cover portions configured to cover at least parts of a periphery of the surface of the display , wherein the moving parts are configured to be movable relative to the guide parts and the fixed part wherein gap (G1, G2, G3) between the surface of the display and the cover portions is adapted to change according to folding of the first housing and the second housing along the folding axis (F). a fixed part disposed in the hinge housing; guide parts disposed in the first housing and the second housing , respectively; and moving parts including cover portions configured to cover at least parts of a periphery of the surface of the display , wherein the moving parts are configured to be movable relative to the guide parts and the fixed part wherein gap (G1, G2, G3) between the surface of the display and the cover portions is adapted to change according to folding of the first housing and the second housing along the folding axis (F).
A segmented wheel for a device for printing on hollow bodies , having a plurality of segments formed on its periphery, wherein a printing blanket for printing on the hollow bodies is or at least can be arranged on at least one segment , wherein the segmented wheel has a main body , wherein the main body is made of a metallic material, wherein each of the segments along the periphery of the main body is arranged at a joint , wherein the segments are each detachably connected to the main body , characterized in that the segments are changeable on the main body in such a way that the segmented wheel can be adapted to different formats of the hollow bodies , which are dependent upon the respective production run, wherein the different formats of the hollow bodies refer to a shorter or taller hollow body height and/or to a different hollow body diameter from that of the current production run.
A method for invoking a command, the method comprising: suggesting with a graphic element a gesture to use to invoke a command; receiving the gesture from a user at a device, wherein the gesture is received via an input mechanism, and wherein the gesture is a predetermined manipulation of the input mechanism; determining a graphic element from multiple graphic elements within a user interface that is associated with the gesture; and invoking the command associated with the determined graphic element; the method being characterised in that the determined graphic element to optimise a generalized distance metric; and the generalized distance metric is calculated based on: a location of the graphic element and a location of the gesture, and a difference between a direction of the gesture and a direction suggested by the graphic element. suggesting with a graphic element a gesture to use to invoke a command; receiving the gesture from a user at a device, wherein the gesture is received via an input mechanism, and wherein the gesture is a predetermined manipulation of the input mechanism; determining a graphic element from multiple graphic elements within a user interface that is associated with the gesture; and invoking the command associated with the determined graphic element; the method being characterised in that the determined graphic element to optimise a generalized distance metric; and the generalized distance metric is calculated based on: a location of the graphic element and a location of the gesture, and a difference between a direction of the gesture and a direction suggested by the graphic element.