mhurhangee/ep-ind-claims huggingface dataset:
An onshore foundation system supporting a wind turbine comprising a nacelle and a rotor supported by a tower, the foundation system comprising, - a slab foundation configured for supporting the tower, the nacelle, and the rotor, the slab foundation having a cross sectional area in a horizontal plane larger than a cross sectional area of the tower, and being placed at an excavation level, characterized by - a drainage layer of a first drainage material, the drainage layer extending underneath the slab foundation such as to allow any groundwater to permeate through the layer, the drainage layer comprising a peripheral portion extending along a periphery of the drainage layer, - a reservoir volume of a second drainage material, the reservoir volume being placed in fluid communication with at least a part of the peripheral portion of the drainage layer to allow a fluid flow of any groundwater between the drainage layer and the reservoir volume, wherein a ratio between the reservoir volume and the volume of the drainage layer is in the range of 1/10 - 2, and wherein the first and second drainage material are gravel with a grain size characterized by a d 50 in the range of 5-40 mm, such as in the range of 10-30 mm, and wherein the first drainage material is the same or different to the second drainage material. - a slab foundation configured for supporting the tower, the nacelle, and the rotor, the slab foundation having a cross sectional area in a horizontal plane larger than a cross sectional area of the tower, and being placed at an excavation level, characterized by - a drainage layer of a first drainage material, the drainage layer extending underneath the slab foundation such as to allow any groundwater to permeate through the layer, the drainage layer comprising a peripheral portion extending along a periphery of the drainage layer, - a reservoir volume of a second drainage material, the reservoir volume being placed in fluid communication with at least a part of the peripheral portion of the drainage layer to allow a fluid flow of any groundwater between the drainage layer and the reservoir volume, wherein a ratio between the reservoir volume and the volume of the drainage layer is in the range of 1/10 - 2, and wherein the first and second drainage material are gravel with a grain size characterized by a d 50 in the range of 5-40 mm, such as in the range of 10-30 mm, and wherein the first drainage material is the same or different to the second drainage material.
An oil scoop manifold, comprising: a plurality of oil scoops aligned in a single circumferential row; at least one reservoir in fluid communication with said plurality of oil scoops; characterized in that: said oil scoop manifold further comprises a first cylindrical landing and a second cylindrical landing spaced from said first cylindrical landing, said plurality of oil scoops aligned in the single circumferential row being disposed between said first landing and said second landing; a plurality of axial slots extending from said reservoirs in aft and forward directions; radial holes (72,74) associated with said plurality of axial slots, said radial holes allowing movement of oil from said plurality of axial slots toward an exterior surface of said first landing and said second landing. a plurality of oil scoops aligned in a single circumferential row; at least one reservoir in fluid communication with said plurality of oil scoops; characterized in that: said oil scoop manifold further comprises a first cylindrical landing and a second cylindrical landing spaced from said first cylindrical landing, said plurality of oil scoops aligned in the single circumferential row being disposed between said first landing and said second landing; a plurality of axial slots extending from said reservoirs in aft and forward directions; radial holes (72,74) associated with said plurality of axial slots, said radial holes allowing movement of oil from said plurality of axial slots toward an exterior surface of said first landing and said second landing. said oil scoop manifold further comprises a first cylindrical landing and a second cylindrical landing spaced from said first cylindrical landing, said plurality of oil scoops aligned in the single circumferential row being disposed between said first landing and said second landing; a plurality of axial slots extending from said reservoirs in aft and forward directions; radial holes (72,74) associated with said plurality of axial slots, said radial holes allowing movement of oil from said plurality of axial slots toward an exterior surface of said first landing and said second landing.
Method for commissioning at least one sensor (10a-10d) that is part of a home automation system, the method comprising: - physically installing the at least one sensor (10a-10d) in a ceiling or a wall of a building, - programming the at least one sensor (10a-10d) by means of configuration software, the configuration software being located on a computer, laptop, tablet or smartphone, and - setting the at least one sensor (10a-10d) in addressing mode, for making it possible for the at least one sensor (10a-10d) to receive a unique identification in the home automation system in the form of a MAC address, characterized in that commissioning the at least one sensor (10a-10d) comprises: - after setting the at least one sensor in addressing mode, exposing the at least one sensor (10a-10d) to a light intensity change from a first light intensity into a second light intensity such that a predefined threshold value of the change is crossed; - upon crossing the threshold value of the change, sending a signal from the at least one sensor (10a-10d) to said configuration software, the signal being representative of the MAC address of the at least one sensor (10a-10d), and - identifying the at least one sensor (10a-10d) by its MAC address and correlating the MAC address with the physical location of the at least one sensor (10a-10d). - physically installing the at least one sensor (10a-10d) in a ceiling or a wall of a building, - programming the at least one sensor (10a-10d) by means of configuration software, the configuration software being located on a computer, laptop, tablet or smartphone, and - setting the at least one sensor (10a-10d) in addressing mode, for making it possible for the at least one sensor (10a-10d) to receive a unique identification in the home automation system in the form of a MAC address, - after setting the at least one sensor in addressing mode, exposing the at least one sensor (10a-10d) to a light intensity change from a first light intensity into a second light intensity such that a predefined threshold value of the change is crossed; - upon crossing the threshold value of the change, sending a signal from the at least one sensor (10a-10d) to said configuration software, the signal being representative of the MAC address of the at least one sensor (10a-10d), and - identifying the at least one sensor (10a-10d) by its MAC address and correlating the MAC address with the physical location of the at least one sensor (10a-10d).
A system for controlling at least one low-beam headlamp of a controlled vehicle, the system comprising a headlamp controller, and the system further comprising: an array of sensors capable of detecting light levels in front of the controlled vehicle; and a control unit in communication with the array of sensors and the headlamp controller, wherein the control unit is operable to communicate a headlamp illumination signal to the headlamp controller to control operation of the at least one low-beam headlamp and prevent the at least one low-beam headlamp from providing a disruptive glare to a driver of a leading vehicle, wherein the control unit prevents the disruptive glare by causing the at least one low-beam headlamp to be one of aimed downward and reduced in intensity; wherein the control unit determines an estimated distance and an angle from the at least one low-beam headlamp of the controlled vehicle to the leading vehicle having tail lamps, wherein the estimated distance is determined by at least one of a brightness of the tail lamps of the leading vehicle and a distance between the two tail lamps of the leading vehicle, wherein the control unit is operable to communicate the headlamp illumination signal to the headlamp controller to control operation of the at least one low-beam headlamp as a function of the estimated distance and angle based on output from the array of sensors. an array of sensors capable of detecting light levels in front of the controlled vehicle; and a control unit in communication with the array of sensors and the headlamp controller, wherein the control unit is operable to communicate a headlamp illumination signal to the headlamp controller to control operation of the at least one low-beam headlamp and prevent the at least one low-beam headlamp from providing a disruptive glare to a driver of a leading vehicle, wherein the control unit prevents the disruptive glare by causing the at least one low-beam headlamp to be one of aimed downward and reduced in intensity; wherein the control unit determines an estimated distance and an angle from the at least one low-beam headlamp of the controlled vehicle to the leading vehicle having tail lamps, wherein the estimated distance is determined by at least one of a brightness of the tail lamps of the leading vehicle and a distance between the two tail lamps of the leading vehicle, wherein the control unit is operable to communicate the headlamp illumination signal to the headlamp controller to control operation of the at least one low-beam headlamp as a function of the estimated distance and angle based on output from the array of sensors.
Assembly for the compressed air supply of a wheel of a vehicle, comprising: - a wheel with a tyre, an output shaft for transmitting torque to the wheel, - a wheel carrier which can be fastened on the vehicle, a wheel bearing, on which the wheel is mounted in a rotationally fixed manner, the wheel bearing being mounted rotatably with respect to the wheel carrier, - a toothing system between the output shaft and the wheel bearing, the toothing system not being configured as a splined shaft connection, and - a compressed-air guide, which leads from a vehicle-side compressed-air source through clearances between teeth of the toothing system, from the toothing system to the wheel, and from the wheel into the tyre. - a wheel with a tyre, an output shaft for transmitting torque to the wheel, - a wheel carrier which can be fastened on the vehicle, a wheel bearing, on which the wheel is mounted in a rotationally fixed manner, the wheel bearing being mounted rotatably with respect to the wheel carrier, - a toothing system between the output shaft and the wheel bearing, the toothing system not being configured as a splined shaft connection, and - a compressed-air guide, which leads from a vehicle-side compressed-air source through clearances between teeth of the toothing system, from the toothing system to the wheel, and from the wheel into the tyre.
Stator for an electrical machine wherein the stator has - a hollow-cylinder-shaped stator yoke and - at least one open groove, which is arranged on the radially inner side of the stator yoke in each case and which extends in an axial direction in each case, wherein it has at least one toroidal coil, which surrounds the stator yoke in each case, wherein the at least one toroidal coil has a groove segment in each case, which is arranged in the respective groove, wherein the at least one toroidal coil has a back segment in each case, which is arranged on the radially outer face of the stator yoke, and wherein the at least one toroidal coil has one radial segment per axial end face, which connects the respective groove segment to the respective back segment, characterised in that the respective groove segment or the respective back segment, together with the two respective radial segments, is embodied as a bar winding, wherein the respective bar winding is embodied in an S shape in the area of the respective radial segment, wherein the stator is able to be operated with an electrical power of at least 1 MW. - a hollow-cylinder-shaped stator yoke and - at least one open groove, which is arranged on the radially inner side of the stator yoke in each case and which extends in an axial direction in each case,
A device for heat treatment, comprising at least one process chamber arranged in an elongated housing and having a heating device and a transport system for continuously transporting material to be treated through the process chamber, wherein the transport system has two parallel spaced apart endless conveyor belts (4.1) having a plurality of fused quartz glass cylinders bridging the spacing between the conveyor belts and being supported thereon, with the material to be treated being seated on said cylinders for heat treatment, characterised in that the cylinders are designed as twin tubes (4.2) which are formed by two tubular compartments (10; 10') that are separated from each other by an intermediate web and each have a longitudinal axis, said cylinders being non-rotatably connected to the conveyor belts (4.1) at their ends.
A wheel loader comprising: an engine; a travel device driven by the engine; and a transmission that transmits driving power from the engine to the travel device; wherein the transmission has: an input shaft; an output shaft; a gear mechanism that includes a planetary gear mechanism (68, 69) and that transmits rotation of the input shaft to the output shaft; and a transmission case that houses the input shaft, the gear mechanism, and the output shaft; a motor (MG1, MG2, MG3) connected to a rotating element of the planetary gear mechanism (68, 69) and attached to the transmission case; and the transmission is configured so that a rotation speed ratio of the output shaft with respect to the input shaft is changed by changing a rotation speed of the motor (MG1, MG2, MG3); characterized in that the transmission has a motor cooling system for circulating cooling oil for cooling the motor (MG1, MG2, MG3); and the transmission case has an output shaft case for housing the output shaft; the output shaft case is positioned forward the motor (MG1, MG2, MG3) and protrudes to a position below the motor (MG1, MG2, MG3); the motor cooling system has a cooling oil tank for storing the cooling oil and a cooling oil pipe connecting the cooling oil tank and the motor (MG1, MG2, MG3); and the cooling oil tank is positioned behind the output shaft case and under the motor (MG1, MG2, MG3). an engine; a travel device driven by the engine; and a transmission that transmits driving power from the engine to the travel device; wherein the transmission has: an input shaft; an output shaft; a gear mechanism that includes a planetary gear mechanism (68, 69) and that transmits rotation of the input shaft to the output shaft; and a transmission case that houses the input shaft, the gear mechanism, and the output shaft; a motor (MG1, MG2, MG3) connected to a rotating element of the planetary gear mechanism (68, 69) and attached to the transmission case; and an input shaft; an output shaft; a gear mechanism that includes a planetary gear mechanism (68, 69) and that transmits rotation of the input shaft to the output shaft; and a transmission case that houses the input shaft, the gear mechanism, and the output shaft; a motor (MG1, MG2, MG3) connected to a rotating element of the planetary gear mechanism (68, 69) and attached to the transmission case; and the transmission is configured so that a rotation speed ratio of the output shaft with respect to the input shaft is changed by changing a rotation speed of the motor (MG1, MG2, MG3); characterized in that the transmission has a motor cooling system for circulating cooling oil for cooling the motor (MG1, MG2, MG3); and the transmission case has an output shaft case for housing the output shaft; the output shaft case is positioned forward the motor (MG1, MG2, MG3) and protrudes to a position below the motor (MG1, MG2, MG3); the motor cooling system has a cooling oil tank for storing the cooling oil and a cooling oil pipe connecting the cooling oil tank and the motor (MG1, MG2, MG3); and the cooling oil tank is positioned behind the output shaft case and under the motor (MG1, MG2, MG3).
A sliding bearing of which a cylinder inner surface supports a rotation shaft in a rotatable manner, the sliding bearing (5, 14, 15, 16, 17) being formed of a molded member of a non-oil-impregnated resin composition that does not contain oil, wherein the resin composition contains an injection-moldable ultrahigh molecular weight polyethylene resin as a base resin, a polytetrafluoroethylene resin as an additive, and an acicular inorganic filler having Mohs hardness of 3 or less, wherein the resin composition contains 65 vol% or more of the ultrahigh molecular weight polyethylene resin, 10-25 vol% of the polytetrafluoroethylene resin, and 1-20 vol% of the acicular inorganic filler, based on the whole of the resin composition, characterised in that an average particle diameter of the polytetrafluoroethylene resin is 30 μm or less, and a Rockwell hardness / wherein the resin composition contains an injection-moldable ultrahigh molecular weight polyethylene resin as a base resin, a polytetrafluoroethylene resin as an additive, and an acicular inorganic filler having Mohs hardness of 3 or less, wherein the resin composition contains 65 vol% or more of the ultrahigh molecular weight polyethylene resin, 10-25 vol% of the polytetrafluoroethylene resin, and 1-20 vol% of the acicular inorganic filler, based on the whole of the resin composition, characterised in that an average particle diameter of the polytetrafluoroethylene resin is 30 μm or less, and a Rockwell hardness /
Streptococcus thermophilus CNCM I-3862 or Lactococcus lactis subsp. lactis CNCM I-1631, for non-therapeutic use in increasing or maintaining a Faecalibacterium prausnitzii population.
A method, including: storing, in a data storage system, a specification for each of multiple sources, each specification including information identifying one or more data elements of the corresponding source; and processing, in a data processing system coupled to the data storage system, data elements from the sources, including generating a set of rules for the sources based on the stored specifications, and matching data elements of different sources and determining a quality metric characterizing a given match between a first data element of a first source and a second data element of a second source according to the set of rules. storing, in a data storage system, a specification for each of multiple sources, each specification including information identifying one or more data elements of the corresponding source; and processing, in a data processing system coupled to the data storage system, data elements from the sources, including generating a set of rules for the sources based on the stored specifications, and matching data elements of different sources and determining a quality metric characterizing a given match between a first data element of a first source and a second data element of a second source according to the set of rules.
An airbag module (100; 200), comprising: an airbag cushion that is folded or wound; an inflator equipped in the airbag cushion; and a case-shaped housing (110; 210) where the airbag cushion is stowed, wherein the housing includes four side walls (112, 114, 116, 118) and an opening formed in an upper side of the housing (110; 210); wherein two of the four side walls (112, 114, 116, 118) include an extendable wall section (120a, 120b; 220a, 220b) respectively, and each of the extendable wall sections (120a, 120b; 220a, 220b) is positioned and connected on one side wall of four side walls (112, 114, 116, 118) and the two side walls perpendiculary positioned and connected on both sides of the one side wall; wherein the two extendable wall sections (120a, 120b; 220a, 220b) are in a folded state prior to expansion and deployment of the airbag cushion and are in an extended state when the airbag cushion expands and deploys, and wherein, in the folded state of the extendable wall sections (120a, 120b; 220a, 220b), the opening of the housing (110; 210) is open and in the extended state of the extendable wall sections, a size of the opening formed in the upper side of the housing (110; 210) is increased. an airbag cushion that is folded or wound; an inflator equipped in the airbag cushion; and a case-shaped housing (110; 210) where the airbag cushion is stowed, wherein the housing includes four side walls (112, 114, 116, 118) and an opening formed in an upper side of the housing (110; 210); wherein two of the four side walls (112, 114, 116, 118) include an extendable wall section (120a, 120b; 220a, 220b) respectively, and each of the extendable wall sections (120a, 120b; 220a, 220b) is positioned and connected on one side wall of four side walls (112, 114, 116, 118) and the two side walls perpendiculary positioned and connected on both sides of the one side wall; wherein the two extendable wall sections (120a, 120b; 220a, 220b) are in a folded state prior to expansion and deployment of the airbag cushion and are in an extended state when the airbag cushion expands and deploys, and wherein, in the folded state of the extendable wall sections (120a, 120b; 220a, 220b), the opening of the housing (110; 210) is open and in the extended state of the extendable wall sections, a size of the opening formed in the upper side of the housing (110; 210) is increased.
A method for operating a metal detector, which has a detector unit with at least one transmitting coil and at least one receiving coil, which surround a conveying apparatus for products, the receiving coil generating a product signal when a product passes through the detection region of the detector unit, which metal detector furthermore has a controller with a reference memory for storing reference data, the controller differentiating between good and bad products by means of an evaluation algorithm using the product signal and taking into account the reference data, in which metal detector test runs are also carried out regularly with at least one metal test body in order to check the function of the metal detector, wherein the test signal generated by the receiving coil when the metal test body passes through the detection region of the detector unit leads to a defined exceeding of the reference data and thus triggers a bad product assessment if the metal detector is functioning, wherein the generated test signal and/or the product signal in conjunction with the associated identifier of the metal test body/product is/are supplied as labelled data to a processing device, which processing device processes the labelled data into update data for improving the reference data and/or for improving the evaluation algorithm, and the update data are transferred to the controller of the metal detector, characterised in that the evaluation algorithm has two sub-algorithms (30, 34), specifically a first unchangeable sub-algorithm, the data of which is located in a reference data memory trained during commissioning of the metal detector, and a second sub-algorithm, the link database of which takes into account the update data and which is changed on the basis of the link database, and that the evaluation algorithm uses an assessment function in order to switch the product assessment from the first sub-algorithm to the second sub-algorithm.