mhurhangee/patent-ind-claim-en huggingface dataset:
Rotor/shaft combination for an electric machine , wherein the rotor/shaft combination comprises a rotor and a shaft , - wherein the rotor has a support device and a heat-conducting device for removing waste heat from the rotor by way of the shaft , - wherein the shaft can be rotationally mounted, about a rotational axis of the shaft , in a first bearing device of the electric machine and in a second bearing device of the electric machine , - wherein the support device is a laminated core having sheets which are stacked in an axial direction , - wherein the rotor is secured to the shaft or can be secured at the correct position to the associated shaft , - wherein the heat-conducting device has, for removing the waste heat from the rotor by way of the shaft , an axial part of the shaft with a first material having a specific thermal conductivity which is greater than 100 Wm -1 K, - wherein the sheets are fixed in the laminated core by means of a connecting device , wherein the connecting device has a short-circuiting ring with a second material, wherein the short-circuiting ring is secured to a first axial end of the support device , wherein, for the purpose of removing the waste heat from the rotor by way of the shaft , the short-circuiting ring is linked directly to the axial part of the shaft or, by securing the rotor , can be linked at the correct position on the associated shaft , wherein the quantified difference between the coefficients of thermal expansion of the first material and the second material is less than 4 x 10 -6 K -1 . - wherein the rotor has a support device and a heat-conducting device for removing waste heat from the rotor by way of the shaft , - wherein the shaft can be rotationally mounted, about a rotational axis of the shaft , in a first bearing device of the electric machine and in a second bearing device of the electric machine , - wherein the support device is a laminated core having sheets which are stacked in an axial direction , - wherein the rotor is secured to the shaft or can be secured at the correct position to the associated shaft , - wherein the heat-conducting device has, for removing the waste heat from the rotor by way of the shaft , an axial part of the shaft with a first material having a specific thermal conductivity which is greater than 100 Wm -1 K, - wherein the sheets are fixed in the laminated core by means of a connecting device , wherein the connecting device has a short-circuiting ring with a second material, wherein the short-circuiting ring is secured to a first axial end of the support device , wherein, for the purpose of removing the waste heat from the rotor by way of the shaft , the short-circuiting ring is linked directly to the axial part of the shaft or, by securing the rotor , can be linked at the correct position on the associated shaft , wherein the quantified difference between the coefficients of thermal expansion of the first material and the second material is less than 4 x 10 -6 K -1 .
Apparatus comprising a main reservoir intended to contain water and an intermediate reservoir supplied by said main reservoir , the intermediate reservoir comprising a cathode and an anode (11; 211) intended to precipitate calcium carbonate and comprising a filter forming a filtering barrier dividing the volume inside the intermediate reservoir between a primary chamber receiving the cathode , supplied with water from the main reservoir , and a secondary chamber receiving the anode and comprising at least one water-drawing orifice at the level of which water is drawn to be used in a device , said anode (11; 211) comprising two longitudinal ends (11A, 11B; 211A, 211B) between which it extends longitudinally along an axis X, said at least one water-drawing orifice (92; 92A, 92B; 292) being, in orthogonal projection on the axis X, located between the two ends (11A, 11B; 211A, 211B) of the anode.
A method for location acquisition, comprising: receiving, by a first terminal, a sidelink signal configuration for a second terminal from a network device, wherein a request requesting the sidelink signal configuration for the second terminal is transmitted to the second terminal from network device, and the sidelink signal configuration for the second terminal is received by the network device from the second terminal; measuring (S402), by the first terminal, a sidelink signal of the second terminal based on the sidelink signal configuration for the second terminal, to acquire a first measurement result, wherein the first measurement result is received by the network device from the first terminal, and first relative positioning information is determined by the network device based on the first measurement result; and receiving, by the first terminal, the first relative positioning information between the first terminal and the second terminal from the network device, the first relative positioning information corresponding to the first measurement result. receiving, by a first terminal, a sidelink signal configuration for a second terminal from a network device, wherein a request requesting the sidelink signal configuration for the second terminal is transmitted to the second terminal from network device, and the sidelink signal configuration for the second terminal is received by the network device from the second terminal; measuring (S402), by the first terminal, a sidelink signal of the second terminal based on the sidelink signal configuration for the second terminal, to acquire a first measurement result, wherein the first measurement result is received by the network device from the first terminal, and first relative positioning information is determined by the network device based on the first measurement result; and receiving, by the first terminal, the first relative positioning information between the first terminal and the second terminal from the network device, the first relative positioning information corresponding to the first measurement result.
A correction amount calculation device usable in a board work line (WML) including a component mounting machine (WM3) configured to perform a mounting process of mounting a component on a board on which solder is printed, a reflow furnace (WM4) configured to heat the board on which the component is mounted and melt the solder to perform soldering, and an appearance inspection machine (WM5) configured to inspect a mounting position (MP1) of the component , which is subjected to the soldering, wherein the correction amount calculation device comprises a selection section configured to select a target component in which a movement amount of the component on the board before and after being conveyed to the reflow furnace (WM4) based on a difference between mounting positions of the component before and after being conveyed to reflow furnace (WM4) is equal to or less than a predetermined allowable value; and a correction amount calculation section configured to calculate a correction amount (CA1) for being used in the mounting process of a board product to be produced later, regarding a positional deviation amount (MA) of the mounting position (MP1) of the target component selected by the selection section with respect to a target mounting position (RF1). in a board work line (WML) including a component mounting machine (WM3) configured to perform a mounting process of mounting a component on a board on which solder is printed, a reflow furnace (WM4) configured to heat the board on which the component is mounted and melt the solder to perform soldering, and an appearance inspection machine (WM5) configured to inspect a mounting position (MP1) of the component , which is subjected to the soldering, wherein the correction amount calculation device comprises a selection section configured to select a target component in which a movement amount of the component on the board before and after being conveyed to the reflow furnace (WM4) based on a difference between mounting positions of the component before and after being conveyed to reflow furnace (WM4) is equal to or less than a predetermined allowable value; and a correction amount calculation section configured to calculate a correction amount (CA1) for being used in the mounting process of a board product to be produced later, regarding a positional deviation amount (MA) of the mounting position (MP1) of the target component selected by the selection section with respect to a target mounting position (RF1).
A hybrid power system, provided with an internal combustion engine and a driving motor having a casing, wherein the internal combustion engine connects to a crankshaft , an output end of the crankshaft connects to a clutch , the clutch connects to a main shaft of the driving motor, and the clutch comprises an axially movable contrate gear connected to the main shaft of the driving motor and an axially fixed contrate gear connected to the crankshaft ; characterized in that the hybrid power system is further provided with an integrated starter generator of a hollow ring shape, wherein the clutch is arranged at its center; wherein the integrated starter generator, comprising a stator and a rotor , the stator and the rotor are provided oppositely in an axial direction of the integrated starter generator, each of the stator and the rotor is provided with a ring-shaped iron core , the iron core of the stator is provided with a coil winding on a side that faces the rotor, the iron core of the rotor is provided with a squirrel-cage conductor or a plurality of permanent magnets on a side that faces the stator, and the rotor and the stator are spaced by a predetermined distance to form an air gap plane that is perpendicular to the axial direction of the rotor and the stator ; wherein the rotor of the integrated starter generator is mounted and fixed on the peripheral edge of the fixed contrate gear connecting to the crankshaft both as the rotor of the integrated starter generator and a clutch flywheel, and the stator of the integrated starter generator is axially mounted and fixed on the casing of the driving motor.
A battery system comprising: a battery module including a plurality of secondary battery cells ; a housing accommodating the battery module ; a printed circuit board PCB located on the battery module and having a first surface facing the battery module and a second surface opposed to the first surface, the PCB comprising a plurality of bent terminal portions located on the second surface of the PCB ; and characterized by a connector part for connecting the PCB with an external electrical component, the connector part comprising a plurality of metal clamps designed to be connected to the bent terminal portions of the PCB . a battery module including a plurality of secondary battery cells ; a housing accommodating the battery module ; a printed circuit board PCB located on the battery module and having a first surface facing the battery module and a second surface opposed to the first surface, the PCB comprising a plurality of bent terminal portions located on the second surface of the PCB ; and characterized by a connector part for connecting the PCB with an external electrical component, the connector part comprising a plurality of metal clamps designed to be connected to the bent terminal portions of the PCB .
A computer-implemented method of preprocessing, prior to encoding with an external encoder, image data using a preprocessing network comprising a set of inter-connected learnable weights, the method comprising: receiving , at the preprocessing network, image data from one or more images; receiving, at the preprocessing network, display configuration data representing one or more display settings of a display device operable to receive encoded pixel representations from the external encoder, the one or more display settings comprising one or more dimming settings of the display device, wherein the one or more display settings are indicative of an energy-saving state of the display device; and processing the image data using the preprocessing network to generate an output pixel representation for encoding with the external encoder, wherein the preprocessing network is configured to process the image data using the received display configuration data representing the one or more display settings of the display device, wherein the weights of the preprocessing network are dependent upon the one or more display settings of the display device, wherein the weights of the preprocessing network are trained using a virtual display module configured to emulate a display device, the virtual display module comprising one or more differentiable functions, and wherein the processing the image data using the preprocessing network comprises enhancing the image data, prior to encoding, to compensate for the one or more dimming settings of the display device. receiving , at the preprocessing network, image data from one or more images; receiving, at the preprocessing network, display configuration data representing one or more display settings of a display device operable to receive encoded pixel representations from the external encoder, the one or more display settings comprising one or more dimming settings of the display device, wherein the one or more display settings are indicative of an energy-saving state of the display device; and processing the image data using the preprocessing network to generate an output pixel representation for encoding with the external encoder, wherein the preprocessing network is configured to process the image data using the received display configuration data representing the one or more display settings of the display device, wherein the weights of the preprocessing network are dependent upon the one or more display settings of the display device, wherein the weights of the preprocessing network are trained using a virtual display module configured to emulate a display device, the virtual display module comprising one or more differentiable functions, and wherein the processing the image data using the preprocessing network comprises enhancing the image data, prior to encoding, to compensate for the one or more dimming settings of the display device.
A rock processing apparatus for crushing and/or for sorting granular mineral material (M) according to size, the rock processing apparatus comprising as apparatus components: - a material feeding apparatus including a material buffer designed to be loaded with starting material (M) to be processed, the material feeding apparatus having an overall feed area , through which a test specimen represented by its center of gravity falls freely and unhindered to reach the material buffer , - at least one working unit of: + at least one crushing apparatus and + at least one screening apparatus , - at least one conveyor apparatus for conveying material between two apparatus components, - a control unit for controlling apparatus components of the rock processing apparatus , - at least one sensor for detecting at least one operating parameter, the sensor being connected to the control unit in signal-transmitting fashion for transmitting a detection signal representing the at least one detected operating parameter, - at least one output device for outputting information, the output device being connected to the control unit in signal-transmitting fashion for transmitting information, characterized in that the control unit is designed, in an operation with discontinuous material feed of starting material (M) to be processed, to ascertain a local target subarea within the overall feed area , selected for the next material feed, on the basis of the at least one detection signal as location information, and to transmit the location information to the output device , the output device being designed to output the location information. - a material feeding apparatus including a material buffer designed to be loaded with starting material (M) to be processed, the material feeding apparatus having an overall feed area , through which a test specimen represented by its center of gravity falls freely and unhindered to reach the material buffer , - at least one working unit of: + at least one crushing apparatus and + at least one screening apparatus , + at least one crushing apparatus and + at least one screening apparatus , - at least one conveyor apparatus for conveying material between two apparatus components, - a control unit for controlling apparatus components of the rock processing apparatus , - at least one sensor for detecting at least one operating parameter, the sensor being connected to the control unit in signal-transmitting fashion for transmitting a detection signal representing the at least one detected operating parameter, - at least one output device for outputting information, the output device being connected to the control unit in signal-transmitting fashion for transmitting information,
A field-sensor device , comprising: - a reference field sensor biased with a reference current, the reference field sensor providing a reference sensor signal in response to a field, - a calibrated field sensor biased with an adjustable current and providing a calibrated sensor signal in response to the field, wherein, when the calibrated field sensor is biased at a calibrated current different from the reference current, the calibrated field sensor provides a calibrated sensor signal substantially equal to the reference sensor signal, characterized in that said field sensor device is arranged to be exposed, when in a calibration mode, to a uniform calibration field and, when in operational mode, to an operational field being a field gradient. - a reference field sensor biased with a reference current, the reference field sensor providing a reference sensor signal in response to a field, - a calibrated field sensor biased with an adjustable current and providing a calibrated sensor signal in response to the field,
A fire-resistant cable with a cable longitudinal axis (LA), comprising: a conductor ; a first fire-protection layer formed by tightly wrapped tape turns (3A1, 3A2, 3A3,...) around said conductor and enclosing said conductor ; a second fire-protection layer formed by tightly wrapped tape turns (3B1, 3B2, 3B3,...) around said first fire-protection tape and enclosing said first fire-protection tape ; a conductor insulation layer enclosing said second fire-protection layer ; an outer jacket surrounding said conductor insulation layer , the first fire-protection layer and the second fire-protection layer being formed from tape turns (3A1, 3A2, 3A3,...; 3B1, 3B2, 3B3,...) wrapped in opposing directions with respect to the cable longitudinal axis (LA), characterized in that the overlap between subsequent tape turns (3A1, 3A2, 3A3,...) of the first fire-resistant layer is between 20% and 5%, preferably between 10% and 5% and overlap between subsequent tape turns (3B1, 3B2, 3B3,...) of the second fire-resistant layer is between 20% and 5%, preferably between 10% and 5%. a conductor ; a first fire-protection layer formed by tightly wrapped tape turns (3A1, 3A2, 3A3,...) around said conductor and enclosing said conductor ; a second fire-protection layer formed by tightly wrapped tape turns (3B1, 3B2, 3B3,...) around said first fire-protection tape and enclosing said first fire-protection tape ; a conductor insulation layer enclosing said second fire-protection layer ; an outer jacket surrounding said conductor insulation layer , the first fire-protection layer and the second fire-protection layer being formed from tape turns (3A1, 3A2, 3A3,...; 3B1, 3B2, 3B3,...) wrapped in opposing directions with respect to the cable longitudinal axis (LA), characterized in that the overlap between subsequent tape turns (3A1, 3A2, 3A3,...) of the first fire-resistant layer is between 20% and 5%, preferably between 10% and 5% and overlap between subsequent tape turns (3B1, 3B2, 3B3,...) of the second fire-resistant layer is between 20% and 5%, preferably between 10% and 5%.
An intervertebral disc prosthesis comprising at least three pieces including a first plate , a second plate and a core having a curved surface in contact with at least a part of a complementary curved surface of the first plate , and a substantially flat surface in contact with at least a part of a substantially flat surface of the second plate , the top of the curved surface of the core being off centre, in at least one direction, in relation to the geometric centre of this curved surface of the core , characterised in that : - the core is mobile, in rotation, in relation to both the first plate and the second plate and in translation in relation to the second plate , - male and female co-operation means , situated near the periphery of the second plate and of the core , limit the movements in translation of the core in relation to the second plate , along an axis substantially parallel to the substantially flat surfaces, and limit the movements in rotation of the core in relation to the second plate, about an axis substantially perpendicular to the substantially flat surfaces. - the core is mobile, in rotation, in relation to both the first plate and the second plate and in translation in relation to the second plate , - male and female co-operation means , situated near the periphery of the second plate and of the core , limit the movements in translation of the core in relation to the second plate ,
Polymer composition comprising, based on the weight of the polymer composition, the following components A, B and C: A. 40.0 to 94.5 wt.-%, preferably 50.0 to 84.0 wt.-%, of at least one acrylic-based polymer comprising at least one alkyl(meth)acrylate; B. 0.5 to 12.0 wt.-%, preferably 1.0 to 10.0 wt.-%, of at least one olefinic copolymer B, comprising at least one olefinic monomer and at least one polar monomer selected from unsaturated carboxylic acids, esters of unsaturated carboxylic acids, and anhydrides of unsaturated carboxylic acids; C. 5.0 to 40.0 wt.-%, preferably 10.0 to 36.0 wt.-%, of at least one particulate multiphase graft copolymer, which comprises a core and at least one shell, comprising at least one alkyl(meth)acrylate. A. 40.0 to 94.5 wt.-%, preferably 50.0 to 84.0 wt.-%, of at least one acrylic-based polymer comprising at least one alkyl(meth)acrylate; B. 0.5 to 12.0 wt.-%, preferably 1.0 to 10.0 wt.-%, of at least one olefinic copolymer B, comprising at least one olefinic monomer and at least one polar monomer selected from unsaturated carboxylic acids, esters of unsaturated carboxylic acids, and anhydrides of unsaturated carboxylic acids; C. 5.0 to 40.0 wt.-%, preferably 10.0 to 36.0 wt.-%, of at least one particulate multiphase graft copolymer, which comprises a core and at least one shell, comprising at least one alkyl(meth)acrylate.