mhurhangee/patent-ind-claim-en huggingface dataset:
A method for improving aluminium alloy blank tensile yield stress and formability comprising the successive steps of: a) providing a 6xxx series aluminium alloy slab; b) optionally homogenizing said slab; c) hot rolling and optionally cold rolling the slab to obtain a sheet; d) solution heat treating and quenching said sheet; e) cold rolling said sheet with at least 20 % cold work reduction; f) cutting said sheet into blanks ; g) flash annealing a portion of the flange of said blanks at a temperature between 360°C and 480°C for a time sufficient to obtain recrystallization of said portion of the flange and cool to a temperature of less than 100°C. a) providing a 6xxx series aluminium alloy slab; b) optionally homogenizing said slab; c) hot rolling and optionally cold rolling the slab to obtain a sheet; d) solution heat treating and quenching said sheet; e) cold rolling said sheet with at least 20 % cold work reduction; f) cutting said sheet into blanks ; g) flash annealing a portion of the flange of said blanks at a temperature between 360°C and 480°C for a time sufficient to obtain recrystallization of said portion of the flange and cool to a temperature of less than 100°C.
An apparatus comprising: - means for obtaining , using a first image recognition or depth sensing mechanism , first information defining an input space , within a field of view of a sensor, and - means for causing rendering of sensor information captured from the input space into an output area , characterized in that the output area is a virtual output area , the first information is obtained from a first user gesture, the means for obtaining are configured to obtain, using the first or a second image recognition or depth sensing mechanism, from a second user gesture, second information defining the virtual output area , and the virtual output area is configured to appear in a field of vision of a user responsive to a change in sensor information originating in the input space , wherein the apparatus is configured to cause the sensor information to be rendered in the virtual output area via a head mounted display, to enable a user to experience the virtual output area as a virtual screen hovering in air or attached to a real surface. - means for obtaining , using a first image recognition or depth sensing mechanism , first information defining an input space , within a field of view of a sensor, and - means for causing rendering of sensor information captured from the input space into an output area ,
An apparatus, comprising: processing circuitry to send instruction execution information indicative of a sequence of instructions executed by the processing circuitry , said sequence including a branch-future instruction that indicates an identified instruction following said branch-future instruction within said sequence, execution of the branch-future instruction being such that said identified instruction, when encountered in said sequence by the processing circuitry , causes the processing circuitry to branch to a target address identified by the branch-future instruction; an input interface to receive the instruction execution information from the processing circuitry ; trace generation circuitry to generate from the instruction execution information a trace stream comprising a plurality of trace elements indicative of execution by the processing circuitry of predetermined instructions within said sequence; and a branch control cache (55; 75) to store branch control information derived from said branch-future instruction; the trace generation circuitry being arranged to detect, based on the branch control information stored in the branch control cache (55; 75) and the instruction execution information from the processing circuitry , when the identified instruction has been encountered by the processing circuitry , and to then issue within the trace stream a trace element to indicate that a branch to the target address has occurred. processing circuitry to send instruction execution information indicative of a sequence of instructions executed by the processing circuitry , said sequence including a branch-future instruction that indicates an identified instruction following said branch-future instruction within said sequence, execution of the branch-future instruction being such that said identified instruction, when encountered in said sequence by the processing circuitry , causes the processing circuitry to branch to a target address identified by the branch-future instruction; an input interface to receive the instruction execution information from the processing circuitry ; trace generation circuitry to generate from the instruction execution information a trace stream comprising a plurality of trace elements indicative of execution by the processing circuitry of predetermined instructions within said sequence; and a branch control cache (55; 75) to store branch control information derived from said branch-future instruction; the trace generation circuitry being arranged to detect, based on the branch control information stored in the branch control cache (55; 75) and the instruction execution information from the processing circuitry , when the identified instruction has been encountered by the processing circuitry , and to then issue within the trace stream a trace element to indicate that a branch to the target address has occurred.
Agricultural machine tool for tillage of the type comprising a wheel body which includes a hub , a rim and at least two arms which each connect the hub and the rim to each other, at least one aperture provided between the two arms and the rim , and having a closed contour , characterised in that it further comprises: - a component which forms an accessory having a profiled portion having a shape which generally corresponds to said closed contour , and a generally superficial portion which terminates the profiled portion , and - a set of fixing members , and in that the profiled portion introduces at one side of the wheel body into the aperture , closing the aperture by means of form-fitting cooperation, as far as a final position in which the superficial portion moves into a flush state with the arms , at least in the region of the contour , whilst the set of fixing members ensures the retention of the component in that final position. - a component which forms an accessory having a profiled portion having a shape which generally corresponds to said closed contour , and a generally superficial portion which terminates the profiled portion , and - a set of fixing members , and in that the profiled portion introduces at one side of the wheel body into the aperture , closing the aperture by means of form-fitting cooperation, as far as a final position in which the superficial portion moves into a flush state with the arms , at least in the region of the contour , whilst the set of fixing members ensures the retention of the component in that final position.
Computer-implemented method of determining conditions of electric motors, comprising the steps: - receiving (S1) a technical specification (TS) of an electric motor comprising at least maximal torque and/or maximal rotational speed of the electric motor ; - from a frequency converter of the electric motor , continuously receiving (S2) a data set (DS i ) including at least electrical current, which is currently supplied to the electric motor by the frequency converter ; - continuously deriving (S3) a current load (CL i ) of the electric motor based on the provided technical specification (TS) and the received data set (DS i ) via a knowledge base (KB), wherein the knowledge base (KB) comprises relationships between the provided technical specification (TS) together with the received data set (DS i ) and the current load (CL i ) of the electric motor , wherein deriving the current load (CL i ) comprises * deriving a current electrical torque of the electrical motor by the frequency converter , and * based on the derived current electrical torque, deriving the current load (CL i ) of the electric motor via the knowledgebase (KB); - continuously determining (S4) a current condition (CC i ) of the electric motor by integrating over the derived current load (CL i ) and all previously derived current loads (CL i-1 ...CL i-N ), and - deriving and updating a time point (T s ) for servicing of the electric motor based on the predicted current condition (CC i ) of the electric motor . - receiving (S1) a technical specification (TS) of an electric motor comprising at least maximal torque and/or maximal rotational speed of the electric motor ; - from a frequency converter of the electric motor , continuously receiving (S2) a data set (DS i ) including at least electrical current, which is currently supplied to the electric motor by the frequency converter ; - continuously deriving (S3) a current load (CL i ) of the electric motor based on the provided technical specification (TS) and the received data set (DS i ) via a knowledge base (KB), wherein the knowledge base (KB) comprises relationships between the provided technical specification (TS) together with the received data set (DS i ) and the current load (CL i ) of the electric motor , wherein deriving the current load (CL i ) comprises * deriving a current electrical torque of the electrical motor by the frequency converter , and * based on the derived current electrical torque, deriving the current load (CL i ) of the electric motor via the knowledgebase (KB); * deriving a current electrical torque of the electrical motor by the frequency converter , and * based on the derived current electrical torque, deriving the current load (CL i ) of the electric motor via the knowledgebase (KB); - continuously determining (S4) a current condition (CC i ) of the electric motor by integrating over the derived current load (CL i ) and all previously derived current loads (CL i-1 ...CL i-N ), and - deriving and updating a time point (T s ) for servicing of the electric motor based on the predicted current condition (CC i ) of the electric motor .
Machine for the continuous forming of a lead strip, which comprises: - a support structure intended to be resting on the ground; - at least one molding roller rotatably supported by said support structure around a first rotation axis (X), provided with an outer surface with which two parallel ring-shaped shoulders are associated ; a molding chamber remaining defined between said outer surface and said ring-shaped shoulders , extending between an inlet section adapted to receive a continuous flow of molten lead and an outlet section adapted to release a continuous lead strip; - a steel strip closed in a loop, at least partially wound around said molding roller in abutment against said ring-shaped shoulders to close said molding chamber ; - at least one forming roller rotatably supported by said support structure around a second rotation axis (Y) parallel to the first rotation axis (X); characterized in that said least one forming roller is provided with an arched profile around which said closed loop steel strip is at least partially wound; said arched profile forming a curving on said steel strip provided with a concavity facing the inside of the closed loop. - a support structure intended to be resting on the ground; - at least one molding roller rotatably supported by said support structure around a first rotation axis (X), provided with an outer surface with which two parallel ring-shaped shoulders are associated ; a molding chamber remaining defined between said outer surface and said ring-shaped shoulders , extending between an inlet section adapted to receive a continuous flow of molten lead and an outlet section adapted to release a continuous lead strip; - a steel strip closed in a loop, at least partially wound around said molding roller in abutment against said ring-shaped shoulders to close said molding chamber ; - at least one forming roller rotatably supported by said support structure around a second rotation axis (Y) parallel to the first rotation axis (X);
Use of a strip consisting of an aluminium alloy for providing adhesive connections, in particular adhesive connections in motor vehicles, characterised in that the strip at least in certain areas has a surface structure prepared for an adhesive connection, wherein the surface structure has depressions which were produced using an electrochemical graining process, wherein the surface structure which is at least provided in certain areas is provided on at least one or on both sides of the strip and has a reduced valley depth Svk of 1.0 μm to 6.0 μm, wherein the band consists at least partially of an aluminium alloy of the type AA7xxx, type AA6xxx, type AA5xxx or the type AA3xxx.
A flow passage forming plate (60i;60o;90) that is to define, in a mounted state in a gas turbine , a part of a gas flow passage through which combustion gas flows in the gas turbine , the flow passage forming plate (60i;60o;90) comprising: a plate main body (61i;61o;91) having a gas path surface (64p;94p) that is to face a side of the gas flow passage, and an inner surface (64i;94i) that faces the opposite side from the gas path surface (64p;94p); a peripheral wall (65i;65o;95) that is provided along a peripheral edge of the plate main body (61i;61o;91), and protrudes, relative to the inner surface (64i;94i), toward an opposite-flow-passage side that is a side of the inner surface (64i;94i) based on the gas path surface (64p;94p); and a ledge (71;98) that protrudes along an inner wall surface of the peripheral wall (65i;65o;95), from the inner surface (64i;94i) toward the opposite-flow-passage side, and is configured to receive an impingement plate (81;81a;101) having a plurality of through-holes (82;102), wherein the flow passage forming plate (60i;60o;90) has the ledge only in a part of the inner wall surface of the peripheral wall in a wall extension direction in which the peripheral wall (65i;65o;95) extends, characterized in that the ledge (71;98) includes a first ledge (71f1;71n1;98x) and a second ledge (71f2;71n2;98y) that are separated from each other in the wall extension direction. a plate main body (61i;61o;91) having a gas path surface (64p;94p) that is to face a side of the gas flow passage, and an inner surface (64i;94i) that faces the opposite side from the gas path surface (64p;94p); a peripheral wall (65i;65o;95) that is provided along a peripheral edge of the plate main body (61i;61o;91), and protrudes, relative to the inner surface (64i;94i), toward an opposite-flow-passage side that is a side of the inner surface (64i;94i) based on the gas path surface (64p;94p); and a ledge (71;98) that protrudes along an inner wall surface of the peripheral wall (65i;65o;95), from the inner surface (64i;94i) toward the opposite-flow-passage side, and is configured to receive an impingement plate (81;81a;101) having a plurality of through-holes (82;102), wherein the flow passage forming plate (60i;60o;90) has the ledge only in a part of the inner wall surface of the peripheral wall in a wall extension direction in which the peripheral wall (65i;65o;95) extends, characterized in that the ledge (71;98) includes a first ledge (71f1;71n1;98x) and a second ledge (71f2;71n2;98y) that are separated from each other in the wall extension direction.
Method of operating a laboratory sample distribution system , wherein the laboratory sample distribution system comprises: - a number of sample container carriers , wherein the sample container carriers are adapted to carry one or more sample containers , wherein the sample containers comprise samples to be analyzed by means of a number of laboratory stations , and - a transport plane , wherein the transport plane is adapted to support the sample container carriers , wherein the method comprises the step: - allocating an area of the transport plane as a buffer area , wherein the buffer area is adapted to store a variable number of sample container carriers , characterized by the step: - controlling the buffer area using a puzzle-based control scheme or using an aisle-based control scheme as a function of the present storage density of the buffer area . - a number of sample container carriers , wherein the sample container carriers are adapted to carry one or more sample containers , wherein the sample containers comprise samples to be analyzed by means of a number of laboratory stations , and - a transport plane , wherein the transport plane is adapted to support the sample container carriers , - allocating an area of the transport plane as a buffer area , wherein the buffer area is adapted to store a variable number of sample container carriers , - controlling the buffer area using a puzzle-based control scheme or using an aisle-based control scheme as a function of the present storage density of the buffer area .
A fuel salt for a molten fuel reactor consisting of: at least a detectable amount of UCl 3 F; one or more of UCl 4 , UCl 3 , UCl 2 F 2 , UClF 3 and a non-fissile salt selected from NaCl, MgCl 2 , CaCl 2 , BaCl 2 , KCl, SrCl 2 , VCl 3 , CrCl 3 , TiCl 4 , ZrCl 4 , AcCl 3 , NpCl 4 , AmCl 3 , LaCl 3 , CeCl 3 , PrCl 3 and NdCl 3 ; and wherein the fuel salt has a melting temperature below 800 °C. at least a detectable amount of UCl 3 F; one or more of UCl 4 , UCl 3 , UCl 2 F 2 , UClF 3 and a non-fissile salt selected from NaCl, MgCl 2 , CaCl 2 , BaCl 2 , KCl, SrCl 2 , VCl 3 , CrCl 3 , TiCl 4 , ZrCl 4 , AcCl 3 , NpCl 4 , AmCl 3 , LaCl 3 , CeCl 3 , PrCl 3 and NdCl 3 ; and wherein the fuel salt has a melting temperature below 800 °C.
Rubber composition based on at least one predominant vinylaromatic diene elastomer, a reinforcing filler, a crosslinking system, and a polyphenylene ether resin which has a number-average molecular mass (Mn) within a range from 800 to 1500 g/mol and a general formula (I) in which the groups R independently of one another represent a hydrogen atom or an alkyl radical and n is between 6 and 12.
Fastening system for passenger seats in a cabin of a vehicle , having: - two or more guide rails that can be integrated into or onto a floor of the cabin , and - a plurality of slides , which can be brought into engagement with the guide rails and which have a flange for connection to a passenger seat in order to retain the relevant passenger seat on a guide rail , wherein each guide rail has a profile cross section, perpendicularly to a main axis of extent (x), which has a base region , a supporting region and at least one undercut situated therebetween, wherein each slide has a cavity , which is of complementary design with the profile cross section of the guide rail , and a necked region , which can be brought into engagement with the undercut , thus enabling the supporting region to be enclosed by the cavity of the slide , and wherein each slide has at least one rotatably mounted roller , which projects into the necked region and can be brought into surface contact with a surface of the guide rail. - two or more guide rails that can be integrated into or onto a floor of the cabin , and - a plurality of slides , which can be brought into engagement with the guide rails and which have a flange for connection to a passenger seat in order to retain the relevant passenger seat on a guide rail , wherein each slide has a cavity , which is of complementary design with the profile cross section of the guide rail , and a necked region , which can be brought into engagement with the undercut , thus enabling the supporting region to be enclosed by the cavity of the slide , and wherein each slide has at least one rotatably mounted roller , which projects into the necked region and can be brought into surface contact with a surface of the guide rail.
A drivable construction with a first partial construction (2.1; 2.1'; 2.1'') and a second partial construction (2.2; 2.2'; 2.2'') that is movable relative to the first partial construction, wherein - the first partial construction (2.1; 2.1'; 2.1'') comprises a first substructure (3.1; 3.1'; 3.1'') and a first roadway structure (4.1), which forms a first drivable surface , and the second partial construction (2.2; 2.2'; 2.2'') comprises a second substructure (3.2; 3.2'; 3.2'') and a second roadway structure (4.2), which forms a second drivable surface , - an expansion joint exists between the first substructure (3.1; 3.1'; 3.1'') and the second substructure (3.2; 3.2', 3.2''), and - a bridging structure (9; 9'; 9'') spanning the expansion joint extends between the first roadway structure (4.1) and the second roadway structure (4.2) and has a support plate (17; 17'; 17'') and an expansion body that is supported by the support plate, cast on site from a polymer-based casting compound and forms a drivable surface , having the following characteristics: - the expansion body has a multi-layer structure that is produced in a plurality of successive casting operations; - at least two of the layers of the expansion body have different compositions. - the first partial construction (2.1; 2.1'; 2.1'') comprises a first substructure (3.1; 3.1'; 3.1'') and a first roadway structure (4.1), which forms a first drivable surface , and the second partial construction (2.2; 2.2'; 2.2'') comprises a second substructure (3.2; 3.2'; 3.2'') and a second roadway structure (4.2), which forms a second drivable surface , - an expansion joint exists between the first substructure (3.1; 3.1'; 3.1'') and the second substructure (3.2; 3.2', 3.2''), and - a bridging structure (9; 9'; 9'') spanning the expansion joint extends between the first roadway structure (4.1) and the second roadway structure (4.2) and has a support plate (17; 17'; 17'') and an expansion body that is supported by the support plate, cast on site from a polymer-based casting compound and forms a drivable surface , - the expansion body has a multi-layer structure that is produced in a plurality of successive casting operations; - at least two of the layers of the expansion body have different compositions.
A method for reducing power usage in a head-mounted display imaging system that includes sensors and an integrated processor comprising: inputting mode settings for the head-mounted display ; and characterised by : Z detecting conditions associated with a user of the head-mounted display and an environment proximate the user with the sensors in the head-mounted display ; analyzing the detected conditions with the processor in the head-mounted display to identify activities associated with the conditions and the environment; and modifying a presentation of an image displayed in the head-mounted display , wherein the modified presentation is based on the mode settings and the identified activities. inputting mode settings for the head-mounted display ; and characterised by : Z detecting conditions associated with a user of the head-mounted display and an environment proximate the user with the sensors in the head-mounted display ; analyzing the detected conditions with the processor in the head-mounted display to identify activities associated with the conditions and the environment; and modifying a presentation of an image displayed in the head-mounted display , wherein the modified presentation is based on the mode settings and the identified activities.