mhurhangee/patent-ind-claim-en huggingface dataset:
A method to repair an end cover of a can-type combustor of a gas turbine comprising: remove the end cover from the combustor of a gas turbine and mount the end cover on a positioner ; characterized in that the method further comprises the steps: while the end cover is mounted on the positioner, sense and record positions of a surface of an opening in the end cover using a probe operated by a manipulator; based on the recorded positions determine at least one of a centerline of the opening, a center point on an inside surface of the opening, and a diameter of the opening; orient a digital model of the opening with respect to the opening of the end cover based on at least one of the centerline, the center point and the diameter, and apply a weld to join an insert to the opening by a welding torch maneuvered automatically by a manipulator and based on the oriented digital model of the opening, wherein the probe is a consumable welding wire extending from the welding torch and the sensing of the positions is determined based on conductivity between a tip of the consumable welding wire and the surface of the opening. remove the end cover from the combustor of a gas turbine and mount the end cover on a positioner ; characterized in that the method further comprises the steps: while the end cover is mounted on the positioner, sense and record positions of a surface of an opening in the end cover using a probe operated by a manipulator; based on the recorded positions determine at least one of a centerline of the opening, a center point on an inside surface of the opening, and a diameter of the opening; orient a digital model of the opening with respect to the opening of the end cover based on at least one of the centerline, the center point and the diameter, and apply a weld to join an insert to the opening by a welding torch maneuvered automatically by a manipulator and based on the oriented digital model of the opening, wherein the probe is a consumable welding wire extending from the welding torch and the sensing of the positions is determined based on conductivity between a tip of the consumable welding wire and the surface of the opening. while the end cover is mounted on the positioner, sense and record positions of a surface of an opening in the end cover using a probe operated by a manipulator; based on the recorded positions determine at least one of a centerline of the opening, a center point on an inside surface of the opening, and a diameter of the opening; orient a digital model of the opening with respect to the opening of the end cover based on at least one of the centerline, the center point and the diameter, and apply a weld to join an insert to the opening by a welding torch maneuvered automatically by a manipulator and based on the oriented digital model of the opening, wherein the probe is a consumable welding wire extending from the welding torch and the sensing of the positions is determined based on conductivity between a tip of the consumable welding wire and the surface of the opening.
A method of operating a multi-tiered cache forming a cache hierarchy, in which each tier is managed by a cache device controller, the method comprising: managing a first tier of the multi-tiered cache by a first cache device controller and a second tier of the multi-tiered cache by a second cache device controller , wherein the second cache device controller is different from the first cache device controller , where at least the second tier of the multi-tiered cache includes a dynamically resizable cache element; detecting, by the first cache device controller for the first tier of the multi-tiered cache, a change of workload characteristics at the first tier of the multi-tiered cache; characterized by : communicating the detected change of workload characteristics from the first cache device controller to the second cache device controller of the second tier ; and the second cache device controller adjusting its caching size and policy in response to the detected changes communicated from the first cache device controller . managing a first tier of the multi-tiered cache by a first cache device controller and a second tier of the multi-tiered cache by a second cache device controller , wherein the second cache device controller is different from the first cache device controller , where at least the second tier of the multi-tiered cache includes a dynamically resizable cache element; detecting, by the first cache device controller for the first tier of the multi-tiered cache, a change of workload characteristics at the first tier of the multi-tiered cache; characterized by : communicating the detected change of workload characteristics from the first cache device controller to the second cache device controller of the second tier ; and the second cache device controller adjusting its caching size and policy in response to the detected changes communicated from the first cache device controller . communicating the detected change of workload characteristics from the first cache device controller to the second cache device controller of the second tier ; and the second cache device controller adjusting its caching size and policy in response to the detected changes communicated from the first cache device controller .
Actuating device for mounting on a vehicle part , in particular in the form of a door or a flap, comprising an electrical switching means with at least one electrical switching element for triggering a vehicle function, and a housing unit with at least a first and a second housing section , wherein the second housing section is movable from a rest position (I) into an actuating position (II) for actuating the switching element at least in certain regions relative to the first housing section , wherein the switching means has at least one trigger element for actuating the switching element , characterized in that the switching element is arranged on the second housing section , so that the switching element is moved along with the movement of the second housing section from the rest position (I) into the actuating position (II), wherein the trigger element is arranged on the first housing section , so that the switching element is moved towards the trigger element when the second housing section is moved from the rest position (I) into the actuating position (II). an electrical switching means with at least one electrical switching element for triggering a vehicle function, and a housing unit with at least a first and a second housing section , wherein the second housing section is movable from a rest position (I) into an actuating position (II) for actuating the switching element at least in certain regions relative to the first housing section , wherein the switching means has at least one trigger element for actuating the switching element , characterized in that the switching element is arranged on the second housing section , so that the switching element is moved along with the movement of the second housing section from the rest position (I) into the actuating position (II), wherein the trigger element is arranged on the first housing section , so that the switching element is moved towards the trigger element when the second housing section is moved from the rest position (I) into the actuating position (II).
Method for monitoring a manufacturing and/or assembly process, a course of the manufacturing and/or assembly process having at least an upstream step, a main step and a downstream step, at least the upstream step, the main step and the downstream step respectively being observed by at least one sensor producing sensor signals, the sensor signals respectively of a course being synchronised together so that, at at least one observation time, at least one sensor signal of each step observed by one of the sensors is present, the at least one sensor signals of the observed steps respectively being compared with corresponding reference values or reference sensor signals, the corresponding reference values or reference sensor signals being assigned, at least in regions, respectively to one characteristic of at least one feature of that step which is observed by the sensor producing the corresponding sensor signal, the characteristic of the at least one feature being derived from the comparison, the determined characteristics of the features of the at least three steps being compared, at at least one of the observation times, with combinations of prescribed characteristics of the corresponding features, and a result of the monitoring being derived from the comparison, the derivation of the result being effected from the characteristics of the observed features by the characteristics of the features being compared with prescribed characteristics which are assigned to results in a regulation library, the result of the monitoring comprising one or more of the following data: cycle coordination, synchronicity of the steps of a course, utilisation of one or more of the steps, an empty workpiece carrier, speed loss, a static throughput time, an error chain between an error originator and an error detector, a prioritised sequence for supporting measures at distributed locations, a shared resource requirement, a prognosis about a non-shareable or shareable resource to be shared.
A purified composition, comprising: proaccelerin (factor V), prothrombin (factor II), proconvertin (factor VII), and Stuart-Prower factor (factor X), wherein the concentration of proaccelerin is from 300% to 2000% relative to the concentration in a normal blood plasma sample, wherein the concentration is determined by extrapolating the activity of proaccelerin using a clotting assay and plotting a standard curve; wherein the concentration of each one of proconvertin, prothrombin and Stuart-Prower factor is from 500% to 2500% or from 150% to 2000% relative to the concentration in a normal blood plasma sample; and wherein the composition is a fibrinogen-depleted plasma-derived concentrate. proaccelerin (factor V), prothrombin (factor II), proconvertin (factor VII), and Stuart-Prower factor (factor X), wherein the concentration of proaccelerin is from 300% to 2000% relative to the concentration in a normal blood plasma sample, wherein the concentration is determined by extrapolating the activity of proaccelerin using a clotting assay and plotting a standard curve; wherein the concentration of each one of proconvertin, prothrombin and Stuart-Prower factor is from 500% to 2500% or from 150% to 2000% relative to the concentration in a normal blood plasma sample; and wherein the composition is a fibrinogen-depleted plasma-derived concentrate. wherein the concentration of each one of proconvertin, prothrombin and Stuart-Prower factor is from 500% to 2500% or from 150% to 2000% relative to the concentration in a normal blood plasma sample; and wherein the composition is a fibrinogen-depleted plasma-derived concentrate.
A method of communication at a user equipment "UE", comprising: determining whether a first reservation preamble of a first operator is received on a first time slot of multiple time slots of a downlink channel from a first network entity, including: partitioning a receiver timeframe into multiple segments each with a maximum time duration; accumulating one or more of the multiple segments corresponding to a portion of the first reservation preamble; applying a non-coherent cross-correlation operation to each of the accumulated one or more segments; and combining each output of the non-coherent cross-correlation operations to trigger detection of the first reservation preamble; and transmitting a second reservation preamble of the first operator on an uplink channel to a second network entity based on a determination that the first reservation preamble of the first operator is received. determining whether a first reservation preamble of a first operator is received on a first time slot of multiple time slots of a downlink channel from a first network entity, including: partitioning a receiver timeframe into multiple segments each with a maximum time duration; accumulating one or more of the multiple segments corresponding to a portion of the first reservation preamble; applying a non-coherent cross-correlation operation to each of the accumulated one or more segments; and combining each output of the non-coherent cross-correlation operations to trigger detection of the first reservation preamble; and partitioning a receiver timeframe into multiple segments each with a maximum time duration; accumulating one or more of the multiple segments corresponding to a portion of the first reservation preamble; applying a non-coherent cross-correlation operation to each of the accumulated one or more segments; and combining each output of the non-coherent cross-correlation operations to trigger detection of the first reservation preamble; and transmitting a second reservation preamble of the first operator on an uplink channel to a second network entity based on a determination that the first reservation preamble of the first operator is received.
Seal assembly comprising a first machine element and a second machine element , which are in each case composed of an electrically conductive material, and a seal , wherein the two machine elements are sealed in relation to one another by the seal , wherein the seal comprises an electrically conductive supporting body , and wherein the supporting body comprises at least one substantially spike-shaped protrusion of an electrically conductive material, characterized in that at least one of the machine elements is composed of an electrically conductive plastics material which for production reasons is at least partially covered by an electrically isolating injection-moulded surface , and in that the at least one substantially spike-shaped protrusion is disposed on the side of the supporting body that faces the injection-moulded surface and completely penetrates the injection-moulded surface .
High strength, hot rolled abrasive wear resistant steel strip, wherein the strip has a thickness in the range of 3 - 20 mm and has a microstructure comprising martensite, auto-tempered martensite with iron carbides and NbC, Nb(C, N) and NbV(C, N) particles and trace amounts of retained austenite in martensite-austenite islands, with low carbon equivalent values CEV, CET and Pcm, and wherein the steel contains in weight percentages: - C: 0.13 - 0.29 - Si: 0.01 - 0.05 - Mn: 0.6 - 0.9 - Cr: 0.05 - 0.8 - Mo: 0.05 - 0.4 - Ni: at most 0.1 - Cu: at most 0.1 - Al: 0.01 - 0.08 - Ti: at most 0.02 - B: at most 0.004 - Nb: 0.005 - 0.035 - V: 0.03 - 0.15 - P: at most 0.020 - S: at most 0.010 - N: at most 0.006 - H: at most 0.0004 - Ca additions for sulphide shape control: 0.0005 - 0.005 - wherein the total content of Nb + V is in a range of 0.035 - 0.16 - other elements in amounts of impurity level, balance iron, and wherein CEV is at most 0.46, CET at most 0.34 and Pcm at most 0.32, and wherein the strip has a Brinell hardness of at least 400 HBW and a tensile strength of at least 1316 MPa, CEV, CET and Pcm being defined as follows: CEV = C+Mn/6+Cr/5+Mo/5+V/5+Cu/15+Ni/15; CET = C+Mn/10+Mo/10+Cr/20+Cu/20+Ni/40; Pcm = C+Si/30+Mn/20+Cu/20+Cr/20+Mo/15+V/10+Ni/60+5B. - C: 0.13 - 0.29 - Si: 0.01 - 0.05 - Mn: 0.6 - 0.9 - Cr: 0.05 - 0.8 - Mo: 0.05 - 0.4 - Ni: at most 0.1 - Cu: at most 0.1 - Al: 0.01 - 0.08 - Ti: at most 0.02 - B: at most 0.004 - Nb: 0.005 - 0.035 - V: 0.03 - 0.15 - P: at most 0.020 - S: at most 0.010 - N: at most 0.006 - H: at most 0.0004 - Ca additions for sulphide shape control: 0.0005 - 0.005 - wherein the total content of Nb + V is in a range of 0.035 - 0.16 - other elements in amounts of impurity level, balance iron, and wherein CEV is at most 0.46, CET at most 0.34 and Pcm at most 0.32, and wherein the strip has a Brinell hardness of at least 400 HBW and a tensile strength of at least 1316 MPa, CEV, CET and Pcm being defined as follows: CEV = C+Mn/6+Cr/5+Mo/5+V/5+Cu/15+Ni/15; CET = C+Mn/10+Mo/10+Cr/20+Cu/20+Ni/40; Pcm = C+Si/30+Mn/20+Cu/20+Cr/20+Mo/15+V/10+Ni/60+5B. CEV = C+Mn/6+Cr/5+Mo/5+V/5+Cu/15+Ni/15; CET = C+Mn/10+Mo/10+Cr/20+Cu/20+Ni/40; Pcm = C+Si/30+Mn/20+Cu/20+Cr/20+Mo/15+V/10+Ni/60+5B.
Method of transmitting a message , between sender and one or more recipients , the method including the following steps: - defining said message to be transmitted by said sender to at least one recipient ; - sending said message in the form of a digital file to a receiving module of a service provider ; - archiving said message in a database ; - assigning a code (CNR) to said message , where said code (CNR) is the position of said message in said database and contains a command to initiate an authorization request procedure; - coding said code (CNR) into a sound signal in an audio file; - returning said sound signal to said sender ; - entrusting the sound signal to a transmission system suitable for broadcasting, for example radio or television, and diffusion of said sound signal through a transmission channel ; - receiving said sound signal by a detector of an electronic device in use by said receiver , wherein a specific application is installed on said electronic device ; - decoding said sound signal to obtain said code (CNR), wherein said decoding is performed by said application , which activates the service provider authorization request procedure; - communicating between said application and said service provider , where said service provider receives from said application said code (CNR) and checks authorization request to prevent access to unverified or unauthorized content; - returning said message corresponding to said code (CNR); - displaying said message on said device said recipient . - defining said message to be transmitted by said sender to at least one recipient ; - sending said message in the form of a digital file to a receiving module of a service provider ; - archiving said message in a database ; - assigning a code (CNR) to said message , where said code (CNR) is the position of said message in said database and contains a command to initiate an authorization request procedure; - coding said code (CNR) into a sound signal in an audio file; - returning said sound signal to said sender ; - entrusting the sound signal to a transmission system suitable for broadcasting, for example radio or television, and diffusion of said sound signal through a transmission channel ; - receiving said sound signal by a detector of an electronic device in use by said receiver , wherein a specific application is installed on said electronic device ; - decoding said sound signal to obtain said code (CNR), wherein said decoding is performed by said application , which activates the service provider authorization request procedure; - communicating between said application and said service provider , where said service provider receives from said application said code (CNR) and checks authorization request to prevent access to unverified or unauthorized content; - returning said message corresponding to said code (CNR); - displaying said message on said device said recipient .
Power converter for charging an electrical energy store which is able to be coupled to the power converter via a circuit breaker , comprising: a detector apparatus which is designed to detect an opening of the circuit breaker ; wherein the power converter is designed to interrupt a provision of electrical energy to the electrical energy store if the detector apparatus detects an opening of the circuit breaker , characterized in that the detector apparatus comprises an additional switching contact at the circuit breaker which is designed to provide information about the switching state of the circuit breaker , and wherein the detector apparatus is designed to evaluate the information provided by the additional switching contact. a detector apparatus which is designed to detect an opening of the circuit breaker ; wherein the power converter is designed to interrupt a provision of electrical energy to the electrical energy store if the detector apparatus detects an opening of the circuit breaker , characterized in that the detector apparatus comprises an additional switching contact at the circuit breaker which is designed to provide information about the switching state of the circuit breaker , and wherein the detector apparatus is designed to evaluate the information provided by the additional switching contact.
Motor vehicle structure comprising a seat floor with inner and outer rail fastening areas of each of two front seats ; and a reinforcement arranged transversely on the seat floor ; the reinforcement being fastened directly to the seat floor and extending transversely over a front portion of the fastening zones of the inner and outer rails as far as the fastening zone of the outer rail of each of the two front seats , the structure comprising two inner bodybase spars , on either side of the seat floor, characterized in that the reinforcement terminates transversely at a distance from each of the two inner spars .
A method for forming an arylalkoxysilane by dehydrogenative silylation between an Si-H bond in starting material A) and an aromatic carbon-hydrogen bond in starting material B), where the method comprises: 1) combining, under conditions appropriate to form the arylalkoxysilane, starting materials comprising A) an alkoxysilane of formula where each R 1 is independently an alkyl group of 1 to 18 carbon atoms, each R 2 is independently an alkyl group of 1 to 4 carbon atoms, subscript a has an average value of at least 1, subscript b has an average value of 1 to 2, and subscript c has an average value of at least 1, and a quantity (a + b + c) = 4; B) an aromatic compound having a carbon-hydrogen bond; and C) a rhodium bisphospholane catalyst. 1) combining, under conditions appropriate to form the arylalkoxysilane, starting materials comprising A) an alkoxysilane of formula where each R 1 is independently an alkyl group of 1 to 18 carbon atoms, each R 2 is independently an alkyl group of 1 to 4 carbon atoms, subscript a has an average value of at least 1, subscript b has an average value of 1 to 2, and subscript c has an average value of at least 1, and a quantity (a + b + c) = 4; B) an aromatic compound having a carbon-hydrogen bond; and C) a rhodium bisphospholane catalyst. A) an alkoxysilane of formula where each R 1 is independently an alkyl group of 1 to 18 carbon atoms, each R 2 is independently an alkyl group of 1 to 4 carbon atoms, subscript a has an average value of at least 1, subscript b has an average value of 1 to 2, and subscript c has an average value of at least 1, and a quantity (a + b + c) = 4; B) an aromatic compound having a carbon-hydrogen bond; and C) a rhodium bisphospholane catalyst.
A process for the preparation of the compound of Formula A wherein Y is CH 3 CO; from the compound of Formula B which comprises the following steps: a) creating a first mixture containing the compound of Formula B, an acylating agent or a chlorinating agent, and a base; b) adding at least one of the compounds of Formula C and Formula J wherein X is Cl, Br, HSO 4 , H 2 PO 4 or CH 3 SO 3 and to the first mixture to form a second mixture; and c) isolating the compound of Formula A from the second mixture. a) creating a first mixture containing the compound of Formula B, an acylating agent or a chlorinating agent, and a base; b) adding at least one of the compounds of Formula C and Formula J wherein X is Cl, Br, HSO 4 , H 2 PO 4 or CH 3 SO 3 and to the first mixture to form a second mixture; and c) isolating the compound of Formula A from the second mixture.