mhurhangee/patent-ind-claim-en huggingface dataset:
Configuration software , adapted to carry out the method in accordance with claim 12, for preparing configuration data and a PLC program for at least one control device and/or protective device, comprising a programmable logic controller, for monitoring and/or controlling at least one drive component for at least one switching device for medium-voltage technology or high-voltage technology, wherein PLC programming software for programming a programmable logic controller is integrated in the configuration software and the configuration software comprises commands to exchange data in a structured data format with the PLC programming software .
A method of determining a left-or-right side installation position of a trailer wheel of a trailer , the trailer being connected to a tow vehicle , the method comprising the steps of: - within a predefined time interval, determining a number of complete rotations of the trailer wheel using an acceleration sensor of the trailer wheel , - within the predefined time interval, determining a number of complete rotations of a left side tow vehicle wheel of the tow vehicle using an ABS-sensor or ESP-sensor of the left side tow vehicle wheel , - within the predefined time interval, determining a number of complete rotations of a right side tow vehicle wheel of the tow vehicle using an ABS-sensor or ESP-sensor of the right side tow vehicle wheel, - determining a first correspondence value indicating a correspondence between the number of complete rotations of the trailer wheel and the number of complete rotations of the left side tow vehicle wheel , - determining a second correspondence value indicating a correspondence between the number of complete rotations of the trailer wheel and the number of complete rotations of the right side tow vehicle wheel , and - determining a left side installation position of the trailer wheel , when the first correspondence value is larger than the second correspondence value, or - determining a right side installation position of the trailer wheel , when the second correspondence value is larger than the first correspondence value. - within a predefined time interval, determining a number of complete rotations of the trailer wheel using an acceleration sensor of the trailer wheel , - within the predefined time interval, determining a number of complete rotations of a left side tow vehicle wheel of the tow vehicle using an ABS-sensor or ESP-sensor of the left side tow vehicle wheel , - within the predefined time interval, determining a number of complete rotations of a right side tow vehicle wheel of the tow vehicle using an ABS-sensor or ESP-sensor of the right side tow vehicle wheel, - determining a first correspondence value indicating a correspondence between the number of complete rotations of the trailer wheel and the number of complete rotations of the left side tow vehicle wheel , - determining a second correspondence value indicating a correspondence between the number of complete rotations of the trailer wheel and the number of complete rotations of the right side tow vehicle wheel , and - determining a left side installation position of the trailer wheel , when the first correspondence value is larger than the second correspondence value, or - determining a right side installation position of the trailer wheel , when the second correspondence value is larger than the first correspondence value.
A method of manufacturing a heat-dissipating device, said heat-dissipating device not including an injection tube, the method comprises the steps of: a) providing an upper casing and a lower casing , wherein a receiving space is defined between the upper casing and the lower casing ; b) positioning a capillary and a brace in the receiving space , welding the upper casing and the lower casing in a manner to seal a seam therebetween hermetically, and reserving a crevice , wherein the capillary comprises an upper portion and a lower portion , and the brace is positioned between the upper portion and the lower portion to support and space apart the upper portion and the lower portion ; c) sintering a combination of the upper casing and the lower casing welded together in step b); d) injecting a liquid working medium from the crevice into the receiving space , wherein the liquid working medium thus injected is of predetermined quantity; and e) putting a combination of the upper casing and the lower casing into which the liquid working medium has been injected in step d) in a vacuum environment and welding the crevice to seal the crevice hermetically. a) providing an upper casing and a lower casing , wherein a receiving space is defined between the upper casing and the lower casing ; b) positioning a capillary and a brace in the receiving space , welding the upper casing and the lower casing in a manner to seal a seam therebetween hermetically, and reserving a crevice , wherein the capillary comprises an upper portion and a lower portion , and the brace is positioned between the upper portion and the lower portion to support and space apart the upper portion and the lower portion ; c) sintering a combination of the upper casing and the lower casing welded together in step b); d) injecting a liquid working medium from the crevice into the receiving space , wherein the liquid working medium thus injected is of predetermined quantity; and e) putting a combination of the upper casing and the lower casing into which the liquid working medium has been injected in step d) in a vacuum environment and welding the crevice to seal the crevice hermetically.
Method for operating a water preparation device for detecting a faulty operation of the water preparation device, wherein at least one pump operating parameter of at least one fluid pump is set, wherein, on the basis of at least one signal of the fluid pump , at least one faulty operation is detected, wherein, in one step , a present pump operating parameter is determined by a control unit , wherein, in one step , the control unit checks whether the pump operating parameter is above a limit value and thus in a first operating parameter interval, or is below the limit value and thus in a second operating parameter interval, wherein, if in the step the pump operating parameter is above the limit value, there follows a step in which, on the basis of a signal of the fluid pump , a possible faulty operation is detected by the control unit , wherein it is not necessary to change the pump operating parameter, wherein, if in the step the pump operating parameter is below the limit value, there follows a step in which the pump operating parameter is increased by the control unit briefly during a time interval such that the pump operating parameter corresponds to a pump operating parameter from the first operating parameter interval, wherein, in one step , a fault signal and/or response signal is generated by the fluid pump and the control unit is provided therewith, wherein, in a subsequent step , the signal of the fluid pump is checked by the control unit , wherein the limit value corresponds to at most 50% of a maximum pump operating parameter.
Textile machine comprising components for processing fibres or yarns, wherein the textile machine is equipped with an electromechanical energy converter and an energy store , which is connected to the electromechanical energy converter , wherein the electromechanical energy converter converts kinetic vibration energy arising at a component during the production operation into electrical energy and wherein the energy store stores the electrical energy, characterised in that the textile machine comprises a winding apparatus for producing a cross-wound package , having: a pivotably mounted package cradle for holding a cross-wound package ; a package drive roller for rotating the cross-wound package by frictional engagement; and a thread traversing device and that the winding apparatus is equipped with the electromechanical energy converter and that the electromechanical energy converter converts the kinetic vibration energy arising at the package cradle during the production operation into electrical energy. wherein the textile machine is equipped with an electromechanical energy converter and an energy store , which is connected to the electromechanical energy converter , wherein the electromechanical energy converter converts kinetic vibration energy arising at a component during the production operation into electrical energy and wherein the energy store stores the electrical energy, characterised in that the textile machine comprises a winding apparatus for producing a cross-wound package , having: a pivotably mounted package cradle for holding a cross-wound package ; a package drive roller for rotating the cross-wound package by frictional engagement; and a thread traversing device and that the winding apparatus is equipped with the electromechanical energy converter and that the electromechanical energy converter converts the kinetic vibration energy arising at the package cradle during the production operation into electrical energy.
Head part for forming a liquid treatment apparatus, which head part includes: a housing, into which at least part of a connecting head of a liquid treatment cartridge is insertable; and a cartridge recognition component , exposed to an interior of the housing in at least an operative position, for co-operating with the inserted part of the connecting head such that at least the part of the connecting head to be inserted of only a cartridge with a feature shaped to fit the exposed part of the cartridge recognition component can reach an operative position in the head part, wherein the housing is provided with an aperture , wherein the cartridge recognition component is insertable through the aperture into the operative position, wherein the cartridge recognition component is fixable in the operative position, wherein the housing includes a shell formed of at least two parts joined together, and wherein the aperture through which the cartridge recognition component is insertable is provided in at least one of the shell parts , characterised in that the cartridge recognition component is releasable from the operative position only by disassembling the shell parts , and in that at least one of the cartridge recognition component and the housing includes at least one latching part arranged to snap into interlocking engagement with a part of the other of the cartridge recognition component and the housing on insertion of the cartridge recognition component into the operative position. a housing, into which at least part of a connecting head of a liquid treatment cartridge is insertable; and a cartridge recognition component , exposed to an interior of the housing in at least an operative position, for co-operating with the inserted part of the connecting head such that at least the part of the connecting head to be inserted of only a cartridge with a feature shaped to fit the exposed part of the cartridge recognition component can reach an operative position in the head part, wherein the housing is provided with an aperture , wherein the cartridge recognition component is insertable through the aperture into the operative position, wherein the cartridge recognition component is fixable in the operative position, wherein the housing includes a shell formed of at least two parts joined together, and wherein the aperture through which the cartridge recognition component is insertable is provided in at least one of the shell parts , characterised in that the cartridge recognition component is releasable from the operative position only by disassembling the shell parts , and in that at least one of the cartridge recognition component and the housing includes at least one latching part arranged to snap into interlocking engagement with a part of the other of the cartridge recognition component and the housing on insertion of the cartridge recognition component into the operative position.
Furniture corner element , in particular shelf with at least one storage level, comprising - a cuboidal frame with a rectangular, in particular square base area with at least one floor opening and a ceiling opening aligned parallel to the floor opening , as well as at least two side openings , - a floor panel accomodated in the floor opening , - a ceiling panel accomodated in the ceiling opening , - at least one side panel accomodated in one of the side openings and at least partially closing the side opening , - at least one rotary fitting , which is arranged on an underside of the floor panel facing away from the ceiling panel and/or on an upper side of the ceiling panel facing away from the floor panel , - wherein the rotary fitting comprises two storage surfaces facing one another, each having at least one running groove in which rolling elements are guided, - wherein the running grooves are shaped such that the first storage surface is movable relative to the second storage surface from an initial position to an opening end position and back to the initial position in a combined translational-rotational motion, - wherein the proportionate translational movement is oriented 45° to one of the side edges of the base area of the frame , and - wherein a center point of the furniture corner element comprises the same spatial coordinates in the initial position and the opening end position characterized in that - the frame is formed in one piece or is composed of a plurality of hollow profile elements . - a cuboidal frame with a rectangular, in particular square base area with at least one floor opening and a ceiling opening aligned parallel to the floor opening , as well as at least two side openings , - a floor panel accomodated in the floor opening , - a ceiling panel accomodated in the ceiling opening , - at least one side panel accomodated in one of the side openings and at least partially closing the side opening , - at least one rotary fitting , which is arranged on an underside of the floor panel facing away from the ceiling panel and/or on an upper side of the ceiling panel facing away from the floor panel , - wherein the rotary fitting comprises two storage surfaces facing one another, each having at least one running groove in which rolling elements are guided, - wherein the running grooves are shaped such that the first storage surface is movable relative to the second storage surface from an initial position to an opening end position and back to the initial position in a combined translational-rotational motion, - wherein the proportionate translational movement is oriented 45° to one of the side edges of the base area of the frame , and - wherein a center point of the furniture corner element comprises the same spatial coordinates in the initial position and the opening end position characterized in that - the frame is formed in one piece or is composed of a plurality of hollow profile elements .
A zirconia-based porous body having a total pore volume of 1.0 ml/g or more in a pore distribution based on a mercury intrusion method, wherein a pore volume of pores having a diameter of 20 nm or more and less than 100 nm is 0.3 ml/g or less, and a pore volume of pores having a diameter of 100 nm or more and 1000 nm or less is 0.5 ml/g or more. a pore volume of pores having a diameter of 20 nm or more and less than 100 nm is 0.3 ml/g or less, and a pore volume of pores having a diameter of 100 nm or more and 1000 nm or less is 0.5 ml/g or more.
A vertical surface emitting laser, comprising: a distributed Bragg reflector; and quantum wells located in the distributed Bragg reflector; and an electrostatically movable mirror bonded to the distributed Bragg reflector to create an optical cavity and configured to tune the wavelength of the vertical surface emitting laser. a distributed Bragg reflector; and quantum wells located in the distributed Bragg reflector; and an electrostatically movable mirror bonded to the distributed Bragg reflector to create an optical cavity and configured to tune the wavelength of the vertical surface emitting laser.
A hearing aid for placement in a user's ear canal, the hearing aid having a proximal end and a distal end , the proximal end being the end of the hearing aid that is inserted into the user's ear canal and facing the tympanic membrane when inserted, the distal end being the opposite end, the hearing aid comprising a shell customised for the user's ear canal, said shell comprising an inner space configured for at least partly receiving a rechargeable battery , a charging arrangement , at least one microphone arrangement , and an integrated circuit , a faceplate comprising an upper face and a lower face and a circumference, the upper face being exposed at the distal end of the hearing aid when the shell is placed in the user's ear canal, said faceplate being configured for closing the inner space of the shell , wherein the integrated circuit is arranged between said faceplate and said proximal end , said charging arrangement being situated at the distal end of the hearing aid and said battery being situated between the integrated circuit and the proximal end , wherein one module (M) comprises said charging arrangement and the at least one microphone arrangement , and that said charging arrangement comprises a coil being configured for wireless communications and/or wireless charging the battery .
An improved process for producing perfluoroalkyl iodides of formula (I) F(CF 2 CF 2 ) n -I (I) wherein n is an integer from 2 to 3, wherein the improvement comprises thermolyzing at least one perfluoroalkyl iodide of formula (II), optionally in the presence of perfluoroethyl iodide, formula (III) F(CF 2 CF 2 ) m -I (II) F(CF 2 CF 2 ) p -I (III) wherein m is an integer greater than or equal to 4, and p is 1, wherein a) the molar ratio of formula (III) to formula (II) is less than 1.0, b) the residence time is from 0.1 to 10 seconds, and c) the temperature is from 450 °C to 500 °C.
A burner gas supply apparatus for increasing flame turbulence, the apparatus comprising: a conduit having a characteristic width, W, defined by an inner surface having a circumferential direction and an axial direction, the axial direction terminating in a nozzle defining a nozzle exit plane and having a characteristic dimension, d, where d <= W; and a first bluff body having characteristic dimension, D bb-1 , projecting a length, L 1 , into the conduit from the inner surface, wherein 0.5 <= L 1 /W <= 1, the first bluff body being spaced apart from the nozzle exit plane by an axial distance of X 1 , wherein X 1 /D bb-1 <= 30; and a second bluff body having a characteristic dimension, D bb-2 , projecting a length, L 2 , into the conduit from the inner surface, wherein 0.5 <= L 2 /W <= 1, the second bluff body being further in the axial direction from the nozzle exit plane than the first bluff body and spaced apart from the first bluff body by an axial distance of X 2 , wherein X 2 /D bb-2 <= 30; a third bluff body having a characteristic dimension, D bb-3 , projecting a length, L 3 , into the conduit from the inner surface, wherein 0.5 <= L 3 /W <= 1, the third bluff body being further in the axial direction from the nozzle exit plane than the second bluff body and spaced apart from the second bluff body by an axial distance of X 3 , wherein X 3 /D bb-3 <= 30; wherein the first bluff body and the second bluff body are separated in the circumferential direction by a first spacing angle; and wherein the second bluff body and the third bluff are separated in the circumferential direction by a second spacing angle. a conduit having a characteristic width, W, defined by an inner surface having a circumferential direction and an axial direction, the axial direction terminating in a nozzle defining a nozzle exit plane and having a characteristic dimension, d, where d <= W; and a first bluff body having characteristic dimension, D bb-1 , projecting a length, L 1 , into the conduit from the inner surface, wherein 0.5 <= L 1 /W <= 1, the first bluff body being spaced apart from the nozzle exit plane by an axial distance of X 1 , wherein X 1 /D bb-1 <= 30; and a second bluff body having a characteristic dimension, D bb-2 , projecting a length, L 2 , into the conduit from the inner surface, wherein 0.5 <= L 2 /W <= 1, the second bluff body being further in the axial direction from the nozzle exit plane than the first bluff body and spaced apart from the first bluff body by an axial distance of X 2 , wherein X 2 /D bb-2 <= 30; a third bluff body having a characteristic dimension, D bb-3 , projecting a length, L 3 , into the conduit from the inner surface, wherein 0.5 <= L 3 /W <= 1, the third bluff body being further in the axial direction from the nozzle exit plane than the second bluff body and spaced apart from the second bluff body by an axial distance of X 3 , wherein X 3 /D bb-3 <= 30; wherein the first bluff body and the second bluff body are separated in the circumferential direction by a first spacing angle; and wherein the second bluff body and the third bluff are separated in the circumferential direction by a second spacing angle.
Apparatus for manufacturing tyres, having a tyre building drum with a device for realizing a ply turn-up for manufacturing unvulcanized green tyres, in which the ply turn-up can be realized by a plurality of turn-up fingers , which are coupled to a drive unit which is arranged outside the tyre building drum, characterized in that the external drive of the turn-up fingers is realized by a number of separately driven spindles, which are mounted in a fixed tyre building ring and can be driven synchronously in opposite directions.
A system for constructing a three-dimensional environment model, the system comprising: a camera device comprising a plurality of image sensors , storage configured to store a convolutional neural network, and a convolver processor optimized for convolutional operations, operatively coupled to the storage and configured to: receive a scene frame representing a single frame and associated metadata from input media , wherein the scene frame includes a plurality of images, wherein each image corresponds to a respective one of the plurality of image sensors of the camera device ; using the convolutional neural network, determine a depth map for each pixel in the scene frame; using the convolutional neural network, determine a set of feature vectors in lower-dimensional feature space, wherein distance between the feature vectors represents visual dissimilarity; determine an optical flow between the scene frame and a key frame based on the feature vectors; determine a six-dimensional transformation of one or more moving objects in the scene frame based on the optical flow , wherein the six-dimensional transformation includes the change in position and change in orientation of the one or more moving objects; and provide updates to a three-dimensional environment model stored on a device based on the depth map and the six-dimensional transformation of the one or more moving objects in the scene frame. receive a scene frame representing a single frame and associated metadata from input media , wherein the scene frame includes a plurality of images, wherein each image corresponds to a respective one of the plurality of image sensors of the camera device ; using the convolutional neural network, determine a depth map for each pixel in the scene frame; using the convolutional neural network, determine a set of feature vectors in lower-dimensional feature space, wherein distance between the feature vectors represents visual dissimilarity; determine an optical flow between the scene frame and a key frame based on the feature vectors; determine a six-dimensional transformation of one or more moving objects in the scene frame based on the optical flow , wherein the six-dimensional transformation includes the change in position and change in orientation of the one or more moving objects; and provide updates to a three-dimensional environment model stored on a device based on the depth map and the six-dimensional transformation of the one or more moving objects in the scene frame.