mhurhangee/patent-ind-claim-en huggingface dataset:
Method for surface machining of a component of a motor vehicle test stand, wherein the component has a plastically deformable material in the region of the surface to be machined, and the component is a roller and/or a plate for receiving a vehicle wheel, and the surface to be machined of the roller is the outer circumferential surface or a part of the outer circumferential surface , and the surface to be machined of the plate is at least a part of one of the outer planar surfaces of the plate , the method comprising: generating a plastic deformation of the material in a partial section of the surface to be machined by pressing in the material using a tool in such a way that the plastic deformation in the partial section comprises a depression and an elevation of the surface , and repeating the generation of a plastic deformation in another partial section of the surface to be machined. generating a plastic deformation of the material in a partial section of the surface to be machined by pressing in the material using a tool in such a way that the plastic deformation in the partial section comprises a depression and an elevation of the surface , and repeating the generation of a plastic deformation in another partial section of the surface to be machined.
A polyethylene composition comprising a base resin comprising (A) 5 to 50 wt.-% of a polyethylene homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 955 to 980 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 50 to 600 g/10 min; (B) 5 to 50 wt.-% of a polyethylene homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 955 to 980 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 100 to 2000 g/10 min; (C) 45 to 70 wt.-% of a homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 943 to 970 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 0.0001 to 1.0 g/10 min; wherein the average molecular weight of the base resin (fractions A+B+C) is higher than the average molecular weight of fraction (A) and higher than the average molecular weight of the combination of fractions (A+B); wherein the average molecular weight of the combination of fractions (A+B) is higher than the average molecular weight of fraction (B); and wherein the sum of the amounts of fraction (A), fraction (B) and fraction (C) is 100 wt.-% with respect to the total weight of the base resin. (A) 5 to 50 wt.-% of a polyethylene homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 955 to 980 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 50 to 600 g/10 min; (B) 5 to 50 wt.-% of a polyethylene homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 955 to 980 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 100 to 2000 g/10 min; (C) 45 to 70 wt.-% of a homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 943 to 970 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 0.0001 to 1.0 g/10 min; wherein the average molecular weight of the base resin (fractions A+B+C) is higher than the average molecular weight of fraction (A) and higher than the average molecular weight of the combination of fractions (A+B); wherein the average molecular weight of the combination of fractions (A+B) is higher than the average molecular weight of fraction (B); and wherein the sum of the amounts of fraction (A), fraction (B) and fraction (C) is 100 wt.-% with respect to the total weight of the base resin.
A process for manufacturing a timepiece component, comprising an electrodeposition step consisting in depositing an alloy on a substrate, forming at least one side wall of the timepiece component, the side wall having a thickness greater than or equal to 50 microns, said electrodeposition step being carried out using an electrolytic bath comprising a compound containing nickel and a nickel-free second compound, containing an element chosen from phosphorus P, carbon C, or chlorine CI, in proportions such that the alloy obtained comprises a weight content of nickel of between 91% and 99.8% inclusive and between 0.2% and 6% inclusive, or even between 0.2% and 4% inclusive, by weight of a second element originating from the second compound and which comprises a step of heat treatment of the component obtained after the electrodeposition step, at a temperature between 150°C and 350°C inclusive, or between 200°C and 320°C inclusive, or between 220°C and 270°C inclusive, so as to improve the performance of the component obtained with respect to creep and/or relaxation phenomena, and characterized in that the electrodeposition step comprises: - the application of an electrolytic bath temperature of between 40°C and 60°C, or between 45°C and 55°C, or substantially equal to 50°C, and - the choice of a pH of the solution of between 1.5 and 4.1, or between 1.5 and 3.5, or substantially equal to 3.0, and - an applied current density of between 1.0 and 3.5 A/cm 2 , or between 2.0 and 3.5 A/cm 2 , or substantially equal to 2.7 A/cm 2 . - the application of an electrolytic bath temperature of between 40°C and 60°C, or between 45°C and 55°C, or substantially equal to 50°C, and - the choice of a pH of the solution of between 1.5 and 4.1, or between 1.5 and 3.5, or substantially equal to 3.0, and - an applied current density of between 1.0 and 3.5 A/cm 2 , or between 2.0 and 3.5 A/cm 2 , or substantially equal to 2.7 A/cm 2 .
A method for producing a defective test component by laser beam melting, wherein i) in a first building process, an analysis component is produced by laser beam melting by successively applying a plurality of raw material powder layers to a building platform and irradiating them site-selectively with laser radiation in dependence on the desired geometry of the analysis component; ii) during the production of the analysis component, at least one process parameter which is characteristic of the occurrence of component defects is detected by means of a process monitoring system ; iii) a defect-prone region of the building platform in which an increased occurrence of component defects is to be expected is identified on the basis of the result of the detection of the process parameter; and iv) in a second building process, at least one defective test component is produced by laser beam melting by successively applying a plurality of raw material powder layers to the building platform and irradiating them site-selectively with laser radiation at least in the defect-prone region of the building platform in dependence on the desired geometry of the at least one defective test component . i) in a first building process, an analysis component is produced by laser beam melting by successively applying a plurality of raw material powder layers to a building platform and irradiating them site-selectively with laser radiation in dependence on the desired geometry of the analysis component; ii) during the production of the analysis component, at least one process parameter which is characteristic of the occurrence of component defects is detected by means of a process monitoring system ; iii) a defect-prone region of the building platform in which an increased occurrence of component defects is to be expected is identified on the basis of the result of the detection of the process parameter; and iv) in a second building process, at least one defective test component is produced by laser beam melting by successively applying a plurality of raw material powder layers to the building platform and irradiating them site-selectively with laser radiation at least in the defect-prone region of the building platform in dependence on the desired geometry of the at least one defective test component .
A device, in particular for an animal space facility or a plant laboratory facility, a warehouse or the like, which is suitable for performing a method for the organisation of at least one object, - with a rack or a cage arrangement (1; 2) with an operating side, - with containers or cages (A1... D4; 250), which are empty or contain at least one object (11; 150; 180) and which comprise a positional marking (11, 150; 180), - with a device for optical recording (recording means) of the complete rack (1; 2) and the single containers (A1... D4; 250) in the rack (1; 2) and the positional markings (11, 150; 180), - wherein the recording means is adapted and configured to optically record the location of one or more containers (A1 ... D4; 250) in the rack (1; 2) and their positional markings (11, 150; 180), and being independently mounted from the rack in the room, in which the rack (1; 2) or several racks (1; 2) are located, - with a computer unit for storing and processing data, - with a comparison or analysis unit, in which data can be compared or analysed with stored data, - and with a signalling device for emitting a warning signal in case of a discrepancy occurring. - with a rack or a cage arrangement (1; 2) with an operating side, - with containers or cages (A1... D4; 250), which are empty or contain at least one object (11; 150; 180) and which comprise a positional marking (11, 150; 180), - with a device for optical recording (recording means) of the complete rack (1; 2) and the single containers (A1... D4; 250) in the rack (1; 2) and the positional markings (11, 150; 180), - wherein the recording means is adapted and configured to optically record the location of one or more containers (A1 ... D4; 250) in the rack (1; 2) and their positional markings (11, 150; 180), and being independently mounted from the rack in the room, in which the rack (1; 2) or several racks (1; 2) are located, - with a computer unit for storing and processing data, - with a comparison or analysis unit, in which data can be compared or analysed with stored data, - and with a signalling device for emitting a warning signal in case of a discrepancy occurring.
A method for operating a power generation system coupled to a power grid during a grid unbalance event or a grid fault event, the method comprising: determining a power grid voltage; determining a negative sequence grid voltage of the power grid from the power grid voltage; comparing the determined negative sequence grid voltage with a reference voltage; and determining a negative sequence reactive injection current for injection into the power grid by the power generation system depending on the result of the comparison, characterised in that the negative sequence reactive injection current is supplied into the power grid when the determined negative sequence grid voltage exceeds the reference voltage, and that the negative sequence reactive injection current has a linear relationship with the negative sequence grid voltage up to a predetermined maximum negative sequence injection current limit. determining a power grid voltage; determining a negative sequence grid voltage of the power grid from the power grid voltage; comparing the determined negative sequence grid voltage with a reference voltage; and determining a negative sequence reactive injection current for injection into the power grid by the power generation system depending on the result of the comparison, characterised in that the negative sequence reactive injection current is supplied into the power grid when the determined negative sequence grid voltage exceeds the reference voltage, and that the negative sequence reactive injection current has a linear relationship with the negative sequence grid voltage up to a predetermined maximum negative sequence injection current limit.
A computer-implemented method of reconciling values of a feature, each value of the feature being provided by a different artificial intelligence, AI, system, the method comprising: collecting (S10) logs from the different AI systems, each log including a value of the feature; identifying (S20) any discrepancy between the values of the feature, and when there is any discrepancy: creating (S30) global information from the values of the feature provided by the different AI systems, the global information taking into account some or all of the values of the feature, and when the global information differs from the value of the feature of one of the AI systems: sending (S40) the global information to that AI system, wherein the AI systems determine a position of an object or identify an object, and the feature is a determined position of an object, or an identification of an object. collecting (S10) logs from the different AI systems, each log including a value of the feature; identifying (S20) any discrepancy between the values of the feature, and when there is any discrepancy: creating (S30) global information from the values of the feature provided by the different AI systems, the global information taking into account some or all of the values of the feature, and when the global information differs from the value of the feature of one of the AI systems: sending (S40) the global information to that AI system, wherein the AI systems determine a position of an object or identify an object, and the feature is a determined position of an object, or an identification of an object.
A home appliance provided to enable communication with a server , the home appliance comprising: a WiFi communication module mounted or connected to the home appliance for supporting a setting mode for making communication connection and a use mode for enabling communication; and wherein the home appliance is configured to be changed to the use mode and registered to the server upon reception of (i) SSID, Service Set Identifier corresponding to a name of a wireless LAN, information of an access point AP through an external terminal provided separate from the home appliance, and (ii) user information required for registration of the home appliance to the server through the external terminal after access to the setting mode through the external terminal , and wherein the use mode is a state in which the home appliance can communicate with the server through the AP, and the user information and product information stored in the home appliance is already registered to the server . a WiFi communication module mounted or connected to the home appliance for supporting a setting mode for making communication connection and a use mode for enabling communication; and wherein the home appliance is configured to be changed to the use mode and registered to the server upon reception of (i) SSID, Service Set Identifier corresponding to a name of a wireless LAN, information of an access point AP through an external terminal provided separate from the home appliance, and (ii) user information required for registration of the home appliance to the server through the external terminal after access to the setting mode through the external terminal , and (i) SSID, Service Set Identifier corresponding to a name of a wireless LAN, information of an access point AP through an external terminal provided separate from the home appliance, and (ii) user information required for registration of the home appliance to the server through the external terminal after access to the setting mode through the external terminal , and wherein the use mode is a state in which the home appliance can communicate with the server through the AP, and the user information and product information stored in the home appliance is already registered to the server .
Fuel cell arrangement having a fuel cell stack comprising a plurality of plate-shaped components stacked in a stacking direction (z), and at least one end plate, wherein the at least one end plate has a plurality of segments in the form of separate parts, and wherein the at least one end plate of the stack has at least one first segment , which terminates a first functional region of the stack, and at least one second segment , which terminates a second functional region of the stack, wherein the segments can be individually clamped, with the result that clamping over the at least one first segment causes a first force to be exerted on the first functional region of the fuel cell stack , and clamping over the at least one second segment causes a second force to be exerted on the second functional region of the fuel cell stack. and at least one end plate, wherein the at least one end plate has a plurality of segments in the form of separate parts, and wherein the at least one end plate of the stack has at least one first segment , which terminates a first functional region of the stack, and at least one second segment , which terminates a second functional region of the stack, wherein the segments can be individually clamped, with the result that clamping over the at least one first segment causes a first force to be exerted on the first functional region of the fuel cell stack , and clamping over the at least one second segment causes a second force to be exerted on the second functional region of the fuel cell stack.
Motor vehicle including an electrical energy storage device which can be charged via an external charging device and a charging cable for connecting the motor vehicle with the charging device , wherein the motor vehicle furthermore has a detecting device for the wireless detection of a presence of the charging cable in at least one area of the motor vehicle and a control device communicating with the detecting device, which control device, in particular when the vehicle is put into service, is designed to inform a driver and to block the drive operation in the case of a detection result displaying a non-present charging cable , characterised in that an unlocking device is provided for releasing the drive operation after a blocking by means of a defined operating action on the part of the driver.
A method of making an absorbent insert for absorbing fluid in a root canal (R), comprising: providing a plurality of wet sheets of absorbent material; compressing the wet sheets of absorbent material between a top pressing plate and a base compression plate to form a compressed sheet (S), wherein the top pressing plate and the base compression plate have unparallel opposing compression surface and compressing the wet sheets of absorbent material to form the compressed sheet (S) with a tapered cross section; drying the compressed sheet (S); and in a single stamp molding process step cutting and shaping the compressed sheet (S) to form at least a body of the absorbent insert from the compressed sheet (S), wherein the absorbent material is in a compressed state as formed prior to the absorbent insert being inserted into the root canal (R) and swells upon absorbing fluid in the root canal, and wherein the body of the absorbent insert is shaped and sized to fit into the root canal (R). providing a plurality of wet sheets of absorbent material; compressing the wet sheets of absorbent material between a top pressing plate and a base compression plate to form a compressed sheet (S), wherein the top pressing plate and the base compression plate have unparallel opposing compression surface and compressing the wet sheets of absorbent material to form the compressed sheet (S) with a tapered cross section; drying the compressed sheet (S); and in a single stamp molding process step cutting and shaping the compressed sheet (S) to form at least a body of the absorbent insert from the compressed sheet (S), wherein the absorbent material is in a compressed state as formed prior to the absorbent insert being inserted into the root canal (R) and swells upon absorbing fluid in the root canal, and wherein the body of the absorbent insert is shaped and sized to fit into the root canal (R).
An apparatus of the tobacco industry for visually inspecting rod-shaped items of the tobacco industry, wherein the rod-shaped items are each an assembly made up of multiple segments (6a..6e), and wherein the apparatus comprises a conveying element for conveying the rod-shaped items in a transverse-axial manner and the conveying element comprises a plurality of receiving troughs in which the rod-shaped items can be or are received, wherein the apparatus additionally comprises an image acquisition device with which the rod-shaped items arranged in the receiving troughs can be or are acquired during the transverse-axial conveying, wherein the image acquisition device comprises a camera arrangement having a plurality of cameras (16a..16e) for image acquisition, and wherein the cameras (16a..16e) are in particular synchronized for simultaneous image acquisition, and wherein each camera (16a..16e) of the camera arrangement comprises an entocentric lens (4a..4e) and, with the latter, an object field, which the rod-shaped items arranged in the receiving troughs run through during the transverse-axial conveying, is imaged onto a field of view , wherein the field of view comprises a central imaging region in which the lens (4a..4e) images free of distortion or at least with a distortion below a predefined or predefinable threshold value, which is surrounded by an imaging edge region having greater distortion, characterized in that said cameras (16a..16e) are arranged next to one another in a longitudinal extension direction (A) of the receiving troughs and the cameras (16a..16e) are arranged in the camera arrangement in such a manner that the central imaging regions of neighboring cameras (16a..16e) overlap one another, wherein the image acquisition device additionally comprises a processing unit which is designed to balance the image data acquired by at least two, in particular all of the, cameras (16a..16e) of the camera arrangement in the central imaging regions to produce a common image of the camera arrangement .