mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of multi-layer coatings in A' color shades, comprising the successive steps: 1) applying a two-layered base coat layer in a total process film thickness in the range from 10 to 35 μm to a substrate provided with an EDC primer, 2) applying a clear coat layer onto the base coat layer, 3) jointly curing the base coat and clear coat layers, wherein step 1) comprises (i) mixing 100 pbv of an unmodified water-borne base coat A having a color shade A' and having a black/white opacity of >25 μm and 1 to 400 pbv of an unmodified water-borne base coat B having a color shade B' to form an unmodified water-borne base coat AB, (ii) mixing the unmodified water-borne base coat AB with a pigment-free admixture component to form a modified water-borne base coat modAB, (iii) applying the first layer of the two-layered base coat layer from the modified water-borne base coat modAB and (iv) applying the second layer of the two-layered base coat layer from the unmodified water-borne base coat A, wherein the pigment-free admixture component is a composition with a solids content of 20 to 95 wt.% consisting of a resin solids content plus possible nonvolatile additives, said resin solids content consisting of polyisocyanate(s), wherein the admixture component is mixed into the unmodified water-borne base coat AB in a ratio by weight of 0.2 to 1 parts of polyisocyanate: 1 part of resin solids of the unmodified water-borne base coat AB, and wherein the pigment content of the unmodified water-borne base coat B is made such that the multi-layer coating achieved after step 3) achieves color shade consistency from in each case at least 80% of the individual process film thickness both of the layer applied from the modified water-borne base coat modAB and of the layer applied from the unmodified water-borne base coat A. 1) applying a two-layered base coat layer in a total process film thickness in the range from 10 to 35 μm to a substrate provided with an EDC primer, 2) applying a clear coat layer onto the base coat layer, 3) jointly curing the base coat and clear coat layers,
A sensor package comprising: a non-conductive substrate; at least two electrically conductive coils (110a-c) located at a first side of the non-conductive substrate, wherein at least one of the at least two electrically conductive coils is configured to sense a magnetic field; an evaluation circuit located at a second side of the non-conductive substrate opposing the first side of the non-conductive substrate; and conductive connections between the at least two electrically conductive coils (110a-c) and the evaluation circuit. a non-conductive substrate; at least two electrically conductive coils (110a-c) located at a first side of the non-conductive substrate, wherein at least one of the at least two electrically conductive coils is configured to sense a magnetic field; an evaluation circuit located at a second side of the non-conductive substrate opposing the first side of the non-conductive substrate; and conductive connections between the at least two electrically conductive coils (110a-c) and the evaluation circuit.
A shower tray comprising a moulded body made of a plastic foam, a water drain and a waterproof barrier layer, wherein floor plates are to be applied or are applied above the barrier layer for the intended use, wherein the moulded body is realised essentially planar on the lower side and on the upper side has an inclination in the direction of a recess arranged in the moulded body, wherein the water drain is arranged in the recess and comprises a collar resting on the moulded body circumferentially at least in sections, wherein a carrier layer is applied on the moulded body and/or on the collar, and wherein the upper side of the moulded body and at least sections of the collar are covered by the waterproof barrier layer, characterised in that the carrier layer has a rigidity E·I of at least 1,000 kNcm 2 /m.
Method for operating a wind turbine having a nacelle being rotatably supported about a vertical yaw axis on a tower of the wind turbine, wherein at least one tower cable is provided between nacelle and the tower, comprising the following steps: - predicting a predicted twist angle of the tower cable by analyzing at least wind direction forecast information for determining a certain prediction period; - initiating an early untwist operation for untwisting a tower cable of the wind turbine at a first specific time; - predicting a future power generation of the wind turbine for the certain prediction period at least by analyzing a prediction of the wind, in particular by analyzing at least wind direction forecast information and/or wind speed forecast information, - wherein the first specific time is determined such, that an overall predicted energy generation of the wind turbine over the certain prediction period is maximized, or that a predicted energy loss caused by the early untwist operation is minimized. - predicting a predicted twist angle of the tower cable by analyzing at least wind direction forecast information for determining a certain prediction period; - initiating an early untwist operation for untwisting a tower cable of the wind turbine at a first specific time; - predicting a future power generation of the wind turbine for the certain prediction period at least by analyzing a prediction of the wind, in particular by analyzing at least wind direction forecast information and/or wind speed forecast information, - wherein the first specific time is determined such, that an overall predicted energy generation of the wind turbine over the certain prediction period is maximized, or that a predicted energy loss caused by the early untwist operation is minimized.
Unit with longitudinal beam and front plate for a motor-vehicle front structure, comprising a longitudinal beam in the form of a hollow profile and a front plate rigidly connected to a front end of said longitudinal beam, - said longitudinal beam comprises a first beam element defining an upper wall, a lower wall and a first side wall of the longitudinal beam and a second beam element having a wall defining a second side wall of the longitudinal beam, - said front plate has a rear face facing towards the longitudinal beam to which a first flange and a second flange are welded, which are separate from each other for connection of the front end of the longitudinal beam, - said first flange is a C-shaped bracket, with an upper wall, a lower wall and a side wall respectively welded to said upper wall, said lower wall and first side wall defined by said first beam element, - the upper, lower and side walls (61, 62, 63) of said first flange have respective bent extensions (611, 621, 631) which are welded to the rear face of said front plate, characterised in - said second flange is a L-shaped bracket, with a first wall welded to the rear face of said front plate and a second wall welded to said second side wall defined by said second beam element. - said longitudinal beam comprises a first beam element defining an upper wall, a lower wall and a first side wall of the longitudinal beam and a second beam element having a wall defining a second side wall of the longitudinal beam, - said front plate has a rear face facing towards the longitudinal beam to which a first flange and a second flange are welded, which are separate from each other for connection of the front end of the longitudinal beam, - said first flange is a C-shaped bracket, with an upper wall, a lower wall and a side wall respectively welded to said upper wall, said lower wall and first side wall defined by said first beam element, - the upper, lower and side walls (61, 62, 63) of said first flange have respective bent extensions (611, 621, 631) which are welded to the rear face of said front plate, characterised in - said second flange is a L-shaped bracket, with a first wall welded to the rear face of said front plate and a second wall welded to said second side wall defined by said second beam element.
Bearing ring, in particular of a rolling bearing or a sliding bearing, comprising a body composed of a magnetostrictive material, with a first bearing raceway and a second axially spaced apart bearing raceway, and a permanent magnetization which is incorporated between the bearing raceways (2, 2') into the material of the body and runs around an axis of rotation of the body.
A method for identifying corrosion under insulation in a structure, comprising: a) receiving, by a computer, a thermograph captured from the structure using an infrared radiation sensor and additional data related to the structure and environmental conditions; b) applying, by a computer, one or more filters to the thermograph and the additional data using a first machine learning system; c) initially determining a CUI classification based on output from the one or more filters; d) validating the initial CUI classification by an inspection of the structure; e) training, by a computer, the filters of the first machine learning system based on results of the validation; f) repeating, by a computer, steps a) through e) with additional thermograph data until a first threshold for CUI classification accuracy is reached; g) inputting, by a computer, outputs of the first machine learning system and additional data related to the structure and environment conditions into a second machine learning system that incorporates information from earlier states into current states; h) training, by a computer, the second machine learning system to identify CUI according to changes in the outputs of the first machine learning system and in the additional data over time until a second threshold for CUI classification accuracy is reached; and i) after the first and second thresholds are reached, identifying, by a computer, CUI in the structure based on current thermograph and additional data using the first and second machine learning systems in coordination. a) receiving, by a computer, a thermograph captured from the structure using an infrared radiation sensor and additional data related to the structure and environmental conditions; b) applying, by a computer, one or more filters to the thermograph and the additional data using a first machine learning system; c) initially determining a CUI classification based on output from the one or more filters; d) validating the initial CUI classification by an inspection of the structure; e) training, by a computer, the filters of the first machine learning system based on results of the validation; f) repeating, by a computer, steps a) through e) with additional thermograph data until a first threshold for CUI classification accuracy is reached; g) inputting, by a computer, outputs of the first machine learning system and additional data related to the structure and environment conditions into a second machine learning system that incorporates information from earlier states into current states; h) training, by a computer, the second machine learning system to identify CUI according to changes in the outputs of the first machine learning system and in the additional data over time until a second threshold for CUI classification accuracy is reached; and i) after the first and second thresholds are reached, identifying, by a computer, CUI in the structure based on current thermograph and additional data using the first and second machine learning systems in coordination.
A system comprising: a computing device in communication with a combustion system, wherein the computing device is configured to perform actions including: issuing an input to the combustion system; determining whether one of a dynamic output and an emission output corresponding to the input to the combustion system exceeds a first boundary condition; and adjusting the input to the combustion system by one of a first step change and a second step change; wherein the first step change corresponds to the dynamic output and the emission output not exceeding the first boundary condition, and the second step change corresponds to one of the dynamic output and the emission output exceeding the first boundary condition, characterized by the second step change being less than the first step change, and wherein the computing device is further configured to generate a characterization vector including the input, the dynamic output, and the emission output for the combustion system, wherein the characterization vector corresponds to an instance of issuing the input. a computing device in communication with a combustion system, wherein the computing device is configured to perform actions including: issuing an input to the combustion system; determining whether one of a dynamic output and an emission output corresponding to the input to the combustion system exceeds a first boundary condition; and adjusting the input to the combustion system by one of a first step change and a second step change; wherein the first step change corresponds to the dynamic output and the emission output not exceeding the first boundary condition, and the second step change corresponds to one of the dynamic output and the emission output exceeding the first boundary condition, issuing an input to the combustion system; determining whether one of a dynamic output and an emission output corresponding to the input to the combustion system exceeds a first boundary condition; and adjusting the input to the combustion system by one of a first step change and a second step change; wherein the first step change corresponds to the dynamic output and the emission output not exceeding the first boundary condition, and the second step change corresponds to one of the dynamic output and the emission output exceeding the first boundary condition, characterized by the second step change being less than the first step change, and wherein the computing device is further configured to generate a characterization vector including the input, the dynamic output, and the emission output for the combustion system, wherein the characterization vector corresponds to an instance of issuing the input.
A wire rod having superior hydrogen delayed fracture resistance and having a composition consisting of C: 0.3 to 0.7 wt%, Si: 0.05 to 2.0 wt%, Mn: 0.7 to 1.5 wt%, La: 30 to 70ppm, Ni: 0.01 to 0.1%, the balance being Fe and inevitable impurities, wherein the wire rod includes a lanthanum (La)-based, a nickel (Ni)-based, or a LaNi-based precipitate, wherein the aspect ratio of the precipitate is 1.2 to 2.0.
Formulation for use in a treatment of an acute myocardial infarction, wherein the formulation reduces a zone of infarct, thereby minimizing the damage following the acute myocardial infarction, wherein the formulation comprises an encapsulated agent, an embedded agent or a particulate agent having a size in the range of 0.03 to 1.0 μm, wherein the agent once released within the targeted macrophages and/or monocytes inhibits and/or destroys the macrophages and/or monocytes, wherein the agent is selected from the group consisting of gallium, gold, selenium, gadolinium, silica, mithramycin, paclitaxel, sirolimus, everolimus, a bisphosphonate and combinations of two or more thereof.
A substrate carrier head comprising: a carrier body; a substrate retainer attached to the carrier body, the substrate retainer comprising an aperture configured to receive a substrate; a first resilient membrane comprising a first imperforated substrate support portion with a width W1; a second resilient membrane comprising a second imperforated substrate support portion with a width W2, the second imperforated substrate support portion positioned between the first substrate support portion and the carrier body and configured to selectively provide a force against at least an inner section of the first imperforated substrate support portion; and an inner support plate fixed relative to the carrier body to prevent relative motion of the inner support plate relative to the carrier body, the inner support plate comprising a support surface configured to support a substrate held upon the second imperforated substrate support portion; characterized in that the substrate carrier head further comprises an outer support plate configured to support an outer section of the first substrate support portion, wherein at least one of the outer support plate and the inner support plate comprise a plurality of holes configured to extend through a thickness of the at least one of the outer support plate and the inner support plate, to provide fluid communication between at least one of the first cavity and the first substrate support portion and the second cavity and the second substrate support portion. a carrier body; a substrate retainer attached to the carrier body, the substrate retainer comprising an aperture configured to receive a substrate; a first resilient membrane comprising a first imperforated substrate support portion with a width W1; a second resilient membrane comprising a second imperforated substrate support portion with a width W2, the second imperforated substrate support portion positioned between the first substrate support portion and the carrier body and configured to selectively provide a force against at least an inner section of the first imperforated substrate support portion; and an inner support plate fixed relative to the carrier body to prevent relative motion of the inner support plate relative to the carrier body, the inner support plate comprising a support surface configured to support a substrate held upon the second imperforated substrate support portion; characterized in that the substrate carrier head further comprises an outer support plate configured to support an outer section of the first substrate support portion, wherein at least one of the outer support plate and the inner support plate comprise a plurality of holes configured to extend through a thickness of the at least one of the outer support plate and the inner support plate, to provide fluid communication between at least one of the first cavity and the first substrate support portion and the second cavity and the second substrate support portion.
A sample processing apparatus for processing a sample, comprising: a sample processing unit comprising a moving mechanism and configured to perform a sample processing operation by moving the moving mechanism; a cover configured to cover the moving mechanism of the sample processing unit; a lock mechanism configured to lock the cover to prevent the cover from being opened; and a controller configured to control the lock mechanism, characterized in that the controller is configured to set either of a first mode and a second mode, wherein in the first mode, the cover is kept locked after the sample processing unit has completed the sample processing operation until an instruction to unlock the cover is received from a user, and in the second mode, the cover is automatically unlocked after the sample processing unit has completed the sample processing operation. a sample processing unit comprising a moving mechanism and configured to perform a sample processing operation by moving the moving mechanism; a cover configured to cover the moving mechanism of the sample processing unit; a lock mechanism configured to lock the cover to prevent the cover from being opened; and a controller configured to control the lock mechanism, characterized in that the controller is configured to set either of a first mode and a second mode, wherein in the first mode, the cover is kept locked after the sample processing unit has completed the sample processing operation until an instruction to unlock the cover is received from a user, and in the second mode, the cover is automatically unlocked after the sample processing unit has completed the sample processing operation.
Mixing device for a burner with reduced production of NOx, the device comprising: a centrally arranged first mixing device for producing a first fuel-air mixture for a primary flame zone, the first mixing device at least comprising a first fuel nozzle and a baffle plate, a second mixing device for producing a second fuel-air mixture for a secondary flame zone which surrounds said primary flame zone, the second mixing device having several second fuel nozzles, characterized by a sealing air production device for producing a sealing air flow in a sealing air zone which surrounds the primary flame zone of the first mixing device arranged downstream of the baffle plate, wherein the second mixing device is designed for delivery of the second fuel-air mixture to the secondary flame zone which surrounds the sealing air zone, and a third mixing device for pre-mixing and swirling a third fuel-air mixture and for delivery of the pre-mixed and swirled third fuel-air mixture to a swirling flame zone arranged between the sealing air zone and the secondary flame zone. a centrally arranged first mixing device for producing a first fuel-air mixture for a primary flame zone, the first mixing device at least comprising a first fuel nozzle and a baffle plate, a second mixing device for producing a second fuel-air mixture for a secondary flame zone which surrounds said primary flame zone, the second mixing device having several second fuel nozzles, characterized by a sealing air production device for producing a sealing air flow in a sealing air zone which surrounds the primary flame zone of the first mixing device arranged downstream of the baffle plate, wherein the second mixing device is designed for delivery of the second fuel-air mixture to the secondary flame zone which surrounds the sealing air zone, and a third mixing device for pre-mixing and swirling a third fuel-air mixture and for delivery of the pre-mixed and swirled third fuel-air mixture to a swirling flame zone arranged between the sealing air zone and the secondary flame zone.
A process to reduce the phorbol ester content of seed kernel of Jatropha curcas varieties containing phorbol ester, where kernel comprises an endosperm and a tegmen, by removing the tegmen from the endosperm, comprising the steps of: a) contacting at least one Jatropha curcas seed kernel with a chemical solution, wherein the chemical solution comprises one or more chemicals that act to loosen the tegmen around the endosperm; b) separating the tegmen from the endosperm; and c) collecting the separated endosperm and optionally the tegmen.
Production method for a fiber-reinforced vessel, comprising at least the steps: - providing an internal jacket of the vessel; - feeding and winding at least one roving onto the internal jacket, wherein at least two roving portions (4, 5) having dissimilar mechanical properties are successively wound; as well as - linking the at least one roving to the internal jacket for producing an external jacket from fiber-composite material, characterized in that at least two roving portions (4, 5) are wound as successive, interconnected parts of a roving. - providing an internal jacket of the vessel; - feeding and winding at least one roving onto the internal jacket, wherein at least two roving portions (4, 5) having dissimilar mechanical properties are successively wound; as well as - linking the at least one roving to the internal jacket for producing an external jacket from fiber-composite material,