mhurhangee/ep-ind-claims huggingface dataset:
Variable turbine geometry, in particular for an exhaust turbocharger for a motor vehicle, which in a blade bearing ring has rotatably mounted guide blades, wherein for adjusting the guide blades an adjustment ring is provided which can be adjusted by an articulated lever of an adjusting device, wherein - on the articulated lever an adjustable eccentric is arranged which is guided in a groove arranged on the blade bearing ring, - at least a minimum flow through the variable turbine geometry is delimited by a stop of the eccentric at at least one end of the groove, characterised in that - the eccentric has a sleeve body which can be inserted into an opening formed in articulated lever head so that a retaining section of the sleeve body is arranged inside the opening, - a core body is provided which is arranged inside the sleeve body and in the mounted state radially tensions the retaining section in the opening and thereby fixes the eccentric onto the articulated lever head axially and/or in a rotationally secure manner. - on the articulated lever an adjustable eccentric is arranged which is guided in a groove arranged on the blade bearing ring, - at least a minimum flow through the variable turbine geometry is delimited by a stop of the eccentric at at least one end of the groove, characterised in that - the eccentric has a sleeve body which can be inserted into an opening formed in articulated lever head so that a retaining section of the sleeve body is arranged inside the opening, - a core body is provided which is arranged inside the sleeve body and in the mounted state radially tensions the retaining section in the opening and thereby fixes the eccentric onto the articulated lever head axially and/or in a rotationally secure manner.
System comprising - a plurality of wireless sensors (F 1, F 2, F 3, F 4, F 5), - a transceiver unit, - a server, - an analysis unit and - position-detection means, - wherein each wireless sensor (F 1, F 2, F 3, F 4, F 5) can be connected to one object (O 1, O 2, O 3, O 4, O 5) each, wherein the objects (O 1, O 2, O 3, O 4, O 5) are goods, - wherein each wireless sensor (F 1, F 2, F 3, F 4, F 5) is configured to acquire measured values on the state of the object (O 1, O 2, O 3, O 4, O 5) connected to said sensor, and to transmit state data on the state of the object (O 1, O 2, O 3, O 4, O 5) to the transceiver unit over a short-range link, - wherein the position-detection means are configured to detect the position of the transceiver unit, - wherein the transceiver unit is configured - to receive the state data from the wireless sensors (F 1, F 2, F 3, F 4, F 5), - to transmit the state data to the analysis unit, characterized in that - the analysis unit is configured - to compare with each other the items of transmitted state data from various wireless sensors, - to identify differences in the state data of the various wireless sensors, - wherein the transceiver unit is configured to transmit information on the differences to the server via a long-range link, - wherein the server is configured to display to a user and/or to store in a database, information on the differences and on the position, - wherein each wireless sensor (F 1, F 2, F 3, F 4, F 5) comprises a packaging state sensor, wherein the packaging state sensor detects whether packaging containing goods is closed or open. - a plurality of wireless sensors (F 1, F 2, F 3, F 4, F 5), - a transceiver unit, - a server, - an analysis unit and - position-detection means, - wherein each wireless sensor (F 1, F 2, F 3, F 4, F 5) can be connected to one object (O 1, O 2, O 3, O 4, O 5) each, wherein the objects (O 1, O 2, O 3, O 4, O 5) are goods, - wherein each wireless sensor (F 1, F 2, F 3, F 4, F 5) is configured to acquire measured values on the state of the object (O 1, O 2, O 3, O 4, O 5) connected to said sensor, and to transmit state data on the state of the object (O 1, O 2, O 3, O 4, O 5) to the transceiver unit over a short-range link, - wherein the position-detection means are configured to detect the position of the transceiver unit, - wherein the transceiver unit is configured - to receive the state data from the wireless sensors (F 1, F 2, F 3, F 4, F 5), - to transmit the state data to the analysis unit, - the analysis unit is configured - to compare with each other the items of transmitted state data from various wireless sensors, - to identify differences in the state data of the various wireless sensors, - wherein the transceiver unit is configured to transmit information on the differences to the server via a long-range link, - wherein the server is configured to display to a user and/or to store in a database, information on the differences and on the position, - wherein each wireless sensor (F 1, F 2, F 3, F 4, F 5) comprises a packaging state sensor, wherein the packaging state sensor detects whether packaging containing goods is closed or open.
A vibration-insulating rubber composition, comprising: a rubber component having a conjugated diene compound/non-conjugated olefin copolymer; sulfur by 0.6 parts by mass or less per 100 parts by mass of the rubber component; and a bismaleimide compound by 1 to 5 parts by mass per 100 parts by mass of the rubber component, wherein the rubber component contains a conjugated diene-based polymer which does not include non-conjugated olefin as monomer unit component. a rubber component having a conjugated diene compound/non-conjugated olefin copolymer; sulfur by 0.6 parts by mass or less per 100 parts by mass of the rubber component; and a bismaleimide compound by 1 to 5 parts by mass per 100 parts by mass of the rubber component, wherein the rubber component contains a conjugated diene-based polymer which does not include non-conjugated olefin as monomer unit component.
A method of exchanging heat comprising the steps of: providing a structure containing a direct evaporative heat exchange section and an indirect heat exchange section, the indirect heat exchange section conducting an internal fluid stream within a plurality of pathways, the direct heat exchange section comprising a top, a bottom, an air inlet, and an air outlet, the indirect heat exchange section comprising a housing having an inlet for an evaporative liquid and an outlet for the evaporative liquid, distributing the evaporative liquid into the indirect heat exchange section housing inlet using an evaporative fluid pump, through a plurality of passages on the external side of the indirect heat exchange section and exiting from the outlet of the indirect heat exchange housing and then distributing the evaporative liquid onto and through the direct heat exchange section, such that indirect heat exchange occurs between the internal fluid stream within the plurality of pathways in the indirect heat exchange section and the evaporative liquid on the outside of the plurality of pathways of the indirect heat exchange section, moving air between the air inlet and the air outlet of the direct heat exchange section, the air moving through the direct heat exchange section directly exchanging heat with the evaporative liquid moving through the direct heat exchange section, the method characterised by: pumping air into the indirect heat exchange housing and through the indirect heat exchange section when the evaporative fluid pump is off to sensibly cool the indirect heat exchange section. providing a structure containing a direct evaporative heat exchange section and an indirect heat exchange section, the indirect heat exchange section conducting an internal fluid stream within a plurality of pathways, the direct heat exchange section comprising a top, a bottom, an air inlet, and an air outlet, the indirect heat exchange section comprising a housing having an inlet for an evaporative liquid and an outlet for the evaporative liquid, distributing the evaporative liquid into the indirect heat exchange section housing inlet using an evaporative fluid pump, through a plurality of passages on the external side of the indirect heat exchange section and exiting from the outlet of the indirect heat exchange housing and then distributing the evaporative liquid onto and through the direct heat exchange section, such that indirect heat exchange occurs between the internal fluid stream within the plurality of pathways in the indirect heat exchange section and the evaporative liquid on the outside of the plurality of pathways of the indirect heat exchange section, moving air between the air inlet and the air outlet of the direct heat exchange section, the air moving through the direct heat exchange section directly exchanging heat with the evaporative liquid moving through the direct heat exchange section, the method characterised by: pumping air into the indirect heat exchange housing and through the indirect heat exchange section when the evaporative fluid pump is off to sensibly cool the indirect heat exchange section.
Cam mechanism for converting the rotary movement of a shaft into a linear movement of a guided output element (7'; 43), the cam mechanism comprising a cam body containing at least one guide groove (19; 30-36) and an engagement member with at least one tappet (22; 23-29) engaging in the guide groove (19; 30-36), having the features a) the engagement member is connected to the shaft in such a manner that, upon rotation of the shaft, the tappet (22; 23-29) as a drive tappet moves circularly about the axis of rotation of the shaft at a predetermined distance; b) either the guided output element (7'; 43) is designed as a slide and the cam body is part of the slide, or the guided output element (7'; 43) is designed as a guide carriage arranged on a guide rail, wherein in the latter case the shaft with the engagement member is rotatably mounted in the guide carriage and the cam body is part of the guide rail; c) the guide groove (9-14; 19; 30-36) has a loop-shaped course. a) the engagement member is connected to the shaft in such a manner that, upon rotation of the shaft, the tappet (22; 23-29) as a drive tappet moves circularly about the axis of rotation of the shaft at a predetermined distance; b) either the guided output element (7'; 43) is designed as a slide and the cam body is part of the slide, or the guided output element (7'; 43) is designed as a guide carriage arranged on a guide rail, wherein in the latter case the shaft with the engagement member is rotatably mounted in the guide carriage and the cam body is part of the guide rail; c) the guide groove (9-14; 19; 30-36) has a loop-shaped course.
A sunscreen cosmetic comprising: (a) 5 to 15% by mass of a salicylic acid-based liquid UV absorbent; (b) 0.5 to 3% by mass of an alkyl silicone wax having a melting point of 60°C or higher; and (c) a low-viscosity silicone oil having a viscosity at 25°C of 100mPa ·s or less, wherein a value obtained by dividing the total of contents of ingredients (b) and (c) by the content of liquid oils ({(b)+(c)}/content of liquid oils) is 0.2 to 0.6, and wherein the sunscreen cosmetic is an oil-in-water type emulsion. (a) 5 to 15% by mass of a salicylic acid-based liquid UV absorbent; (b) 0.5 to 3% by mass of an alkyl silicone wax having a melting point of 60°C or higher; and (c) a low-viscosity silicone oil having a viscosity at 25°C of 100mPa ·s or less, wherein a value obtained by dividing the total of contents of ingredients (b) and (c) by the content of liquid oils ({(b)+(c)}/content of liquid oils) is 0.2 to 0.6, and
On-board diagnostic unit for a motor vehicle for detecting an undone mechanical connection between at least two fluid mechanics-related lines (10, 11), the unit comprising at least one first contact element (12, 13, 14) which is an electric conductor and at least one axially spaced second contact element which is an electric conductor, of which at least one is provided to be at least substantially elastically deformed for contacting in at least one connecting position (16, 17, 18) of the mechanical connection, characterised by at least one third contact element (12, 13, 14) which is an electric conductor and located at an axial distance from the second contact element, wherein the least one first contact element (12, 13, 14) and the at least one third contact element (12, 13, 14) are arranged at a circumferential distance extending around the at least one connecting position (16, 17, 18) from one another to interrupt an electric circuit, wherein the third contact element is provided to be elastically deformed by the connecting force of the mechanical connection for contacting the contact element at the connecting position (16, 17, 18), as a result of which a current can flow from the first contact element via the second contact element to the third contact element.
An active magnetic bearing assembly (38; 38A; 38B) configured to facilitate rotation of a drive shaft of a rotary machine system, wherein the active magnet bearing assembly (38; 38A; 38B) comprises: a stator comprising a first tooth, a second tooth, a third tooth, and a fourth tooth; a first electromagnet comprising a first plurality of coils formed around the second tooth and the third tooth of the stator such that the first electromagnet is configured to generate a first electromagnet magnetic field that exerts a force on the drive shaft, optionally an attractive force toward the first electromagnet; a first integrated position sensor comprising a second plurality of coils formed around the first tooth and the second tooth of the stator such that the second plurality of coils is configured to carry a first current; and a second integrated position sensor comprising a third plurality of coils formed around the third tooth and the fourth tooth of the stator such that the third plurality of coils is configured to carry a second current; characterized in that the first integrated position sensor and the second integrated position sensor are 90° offset from one another and 45° offset from the first electromagnet. a stator comprising a first tooth, a second tooth, a third tooth, and a fourth tooth; a first electromagnet comprising a first plurality of coils formed around the second tooth and the third tooth of the stator such that the first electromagnet is configured to generate a first electromagnet magnetic field that exerts a force on the drive shaft, optionally an attractive force toward the first electromagnet; a first integrated position sensor comprising a second plurality of coils formed around the first tooth and the second tooth of the stator such that the second plurality of coils is configured to carry a first current; and a second integrated position sensor comprising a third plurality of coils formed around the third tooth and the fourth tooth of the stator such that the third plurality of coils is configured to carry a second current; characterized in that the first integrated position sensor and the second integrated position sensor are 90° offset from one another and 45° offset from the first electromagnet.
A washing machine comprising: a first housing in which a first tub is disposed, the first housing having an open top; a first drain pump disposed in the first housing, the first drain pump being configured to drain water from the first tub; a second tub disposed in a second housing which has an open bottom and wherein the second housing is mounted on an upper portion of the first housing, and characterized in that it further comprises a second drain pump being configured to drain water from the second tub, wherein the second drain pump is mounted in the upper portion of the first housing. a first housing in which a first tub is disposed, the first housing having an open top; a first drain pump disposed in the first housing, the first drain pump being configured to drain water from the first tub; a second tub disposed in a second housing which has an open bottom and wherein the second housing is mounted on an upper portion of the first housing, and characterized in that it further comprises a second drain pump being configured to drain water from the second tub, wherein the second drain pump is mounted in the upper portion of the first housing.
A hydraulic cementitious binder manufactured from fly ash, blast furnace slag and a chemical activator characterized in that it comprises: - from 60 to 85 wt. % of fly ash containing less than wt. 8% of CaO; - from 8 to 28 wt. % of blast furnace slag; and - a chemical activator containing: • from 1 to 4 wt. % of alkaline silicates; and • from 7 to 11 wt. % of alkaline carbonates. - from 60 to 85 wt. % of fly ash containing less than wt. 8% of CaO; - from 8 to 28 wt. % of blast furnace slag; and - a chemical activator containing: • from 1 to 4 wt. % of alkaline silicates; and • from 7 to 11 wt. % of alkaline carbonates. • from 1 to 4 wt. % of alkaline silicates; and • from 7 to 11 wt. % of alkaline carbonates.
A cleaner for performing autonomous traveling, the cleaner comprising: a main body; a driving unit configured to move the main body; a camera (130, 1400) configured to capture an image related to a cleaning area in which the main body is located; a memory configured to store information related to a preset algorithm for analyzing the image; a controller configured to detect a difference between a first image and a second image consecutively captured by the camera (130, 1400), characterised in that the controller being further configured to generate a third image based on the detected difference, and analyze the generated third image using the preset algorithm; wherein the controller is configured to stop movement of the main body or rotation of the camera (130, 1400), while the first image and the second image are captured. a main body; a driving unit configured to move the main body; a camera (130, 1400) configured to capture an image related to a cleaning area in which the main body is located; a memory configured to store information related to a preset algorithm for analyzing the image; a controller configured to detect a difference between a first image and a second image consecutively captured by the camera (130, 1400), characterised in that the controller being further configured to generate a third image based on the detected difference, and analyze the generated third image using the preset algorithm; wherein the controller is configured to stop movement of the main body or rotation of the camera (130, 1400), while the first image and the second image are captured.
Device for monitoring the correct functioning of a crop collecting apparatus, having an optical sensor which monitors a region lying in front of the crop collecting apparatus in the forward direction and is connected to a signal processing apparatus, characterized in that the signal processing apparatus can be operated to detect, on the basis of the signals of the sensor, crop which is not moving with respect to the crop collecting apparatus and which the crop collecting apparatus is pushing ahead of itself, as a crop accumulation which does not occur in the correct mode, and to output a fault signal in the case of a detected crop accumulation.
A sensor for an image forming apparatus, comprising: an optical sensor including a light source and a plurality of light receivers (13, 14, 15) configured to receive light emitted from the light source and regularly reflected and diffusely reflected by an object; a memory storing a database including output data regarding multiple objects of known and different types from the plurality of light receivers (13, 14, 15) when an incident direction of a component of light emitted from the light source forms a first direction to the object and when the incident direction of said component of light emitted from the light source forms a second direction which is orthogonal to the first direction in a plane parallel to a surface of the object; and a processor configured to control the light emitted from the light source to illuminate an object of unknown type with polarized light and specify the type of the object of unknown type by matching the output data of the plurality of light receivers (13, 14, 15) to the database; characterized in that the processor is configured to calculate a precision ratio which represents a matching degree of the data of each types in the database and the output data of the light receivers (13, 14, 15) in the case of the object of the unknown type, and to determine the type of the object of the unknown type according to the precision ratio. an optical sensor including a light source and a plurality of light receivers (13, 14, 15) configured to receive light emitted from the light source and regularly reflected and diffusely reflected by an object; a memory storing a database including output data regarding multiple objects of known and different types from the plurality of light receivers (13, 14, 15) when an incident direction of a component of light emitted from the light source forms a first direction to the object and when the incident direction of said component of light emitted from the light source forms a second direction which is orthogonal to the first direction in a plane parallel to a surface of the object; and a processor configured to control the light emitted from the light source to illuminate an object of unknown type with polarized light and specify the type of the object of unknown type by matching the output data of the plurality of light receivers (13, 14, 15) to the database; characterized in that the processor is configured to calculate a precision ratio which represents a matching degree of the data of each types in the database and the output data of the light receivers (13, 14, 15) in the case of the object of the unknown type, and to determine the type of the object of the unknown type according to the precision ratio.
A method for collection of ruthenium or a ruthenium compound, comprising the steps of: putting an aqueous solution containing ruthenium or a ruthenium compound into contact with an inorganic adsorbent; dissolving the entirety or a part of the inorganic adsorbent under an acidic condition; and adding an alkali to deposit the dissolved inorganic adsorbent while causing the inorganic adsorbent to adsorb ruthenium or the ruthenium compound, wherein the inorganic adsorbent is at least one selected from the group consisting of a calcium phosphate compound, a talcite compound, and an amorphous aluminumsilicate, and wherein the step of adding an alkali to deposit the dissolved inorganic adsorbent includes the step of adding the alkali such that a pH value of the aqueous solution becomes 7 or higher. putting an aqueous solution containing ruthenium or a ruthenium compound into contact with an inorganic adsorbent; dissolving the entirety or a part of the inorganic adsorbent under an acidic condition; and adding an alkali to deposit the dissolved inorganic adsorbent while causing the inorganic adsorbent to adsorb ruthenium or the ruthenium compound, wherein the inorganic adsorbent is at least one selected from the group consisting of a calcium phosphate compound, a talcite compound, and an amorphous aluminumsilicate, and wherein the step of adding an alkali to deposit the dissolved inorganic adsorbent includes the step of adding the alkali such that a pH value of the aqueous solution becomes 7 or higher.
A method of analyzing a degree of hydrogenation of a hydrogenated diene polymer using infrared absorption spectroscopy, the method comprising use of a calibration curve, characterized in that the calibration curve is represented by the following equation: 2 H − Vin = aA2915 + b where H is a degree of hydrogenation (%) of a hydrogenated diene polymer, Vin is a vinyl percentage (%) of the hydrogenated diene polymer, A2915 is a peak intensity of a peak attributed to CH 2 antisymmetric stretching vibration, and a and b are each a constant. the calibration curve is represented by the following equation: 2 H − Vin = aA2915 + b where H is a degree of hydrogenation (%) of a hydrogenated diene polymer, Vin is a vinyl percentage (%) of the hydrogenated diene polymer, A2915 is a peak intensity of a peak attributed to CH 2 antisymmetric stretching vibration, and a and b are each a constant.