mhurhangee/patent-ind-claim-en huggingface dataset:
A system, comprising: a rotor ; a casing ; a measurement system , comprising: a sensor mount having a curved top surface ; a light source mounted to the sensor mount ; a light sensor mounted to the sensor mount and circumferentially spaced apart from the light source about an axis of rotation of a rotor ; and a controller coupled to the light source and the light sensor , wherein the controller is configured to determine a clearance between the rotor and a casing at least partially based on an interruption of light transmitted from the light source to the light sensor as a secant across a curved surface of the casing ; characterized in that the controller is configured to determine the clearance between the rotor and the casing at least partially based on a duration of the interruption of light transmitted from the light source to the light sensor and at least partially based on a rotational speed of the rotor . a rotor ; a casing ; a measurement system , comprising: a sensor mount having a curved top surface ; a light source mounted to the sensor mount ; a light sensor mounted to the sensor mount and circumferentially spaced apart from the light source about an axis of rotation of a rotor ; and a controller coupled to the light source and the light sensor , wherein the controller is configured to determine a clearance between the rotor and a casing at least partially based on an interruption of light transmitted from the light source to the light sensor as a secant across a curved surface of the casing ; characterized in that the controller is configured to determine the clearance between the rotor and the casing at least partially based on a duration of the interruption of light transmitted from the light source to the light sensor and at least partially based on a rotational speed of the rotor . a sensor mount having a curved top surface ; a light source mounted to the sensor mount ; a light sensor mounted to the sensor mount and circumferentially spaced apart from the light source about an axis of rotation of a rotor ; and a controller coupled to the light source and the light sensor , wherein the controller is configured to determine a clearance between the rotor and a casing at least partially based on an interruption of light transmitted from the light source to the light sensor as a secant across a curved surface of the casing ; characterized in that the controller is configured to determine the clearance between the rotor and the casing at least partially based on a duration of the interruption of light transmitted from the light source to the light sensor and at least partially based on a rotational speed of the rotor .
Tower made of wood, in particular for a wind power plant , wherein the tower is constructed from annular segments made from several wooden components and wherein the tower comprises at least two wooden components , the wooden components being segments placed on top of one another, wherein the wooden components of the tower have a first outside and a second outside , wherein the wooden components have end faces , where they are joined to one another, wherein the wooden components have at their end faces a toothing structure each, which comprises several toothing elements arranged adjacent to one another in the longitudinal direction of the end face , wherein the toothing elements of the two wooden components engage with one another and bound a gap formed between the wooden components and at least partially filled with adhesive, characterised in that the wooden components have at their end faces at least one longitudinal groove extending between the outsides of the wooden components of the tower , wherein the longitudinal grooves form at least one passage , which runs through several mutually engaged toothing elements and extends over at least 80% of the height (h) of the toothing elements .
A thermoplastic polycarbonate composition comprising the following components, relative to the total weight of the composition: A) 24 - 70 wt.% of an aromatic polycarbonate not being a polysiloxane-polycarbonate copolymer, B) 15 - 50 wt.% of a polysiloxane-polycarbonate copolymer, and C) 12 - 37 wt.% of an amorphous copolyester comprising 1,4-cyclohexanedimethylene terephthalate repeating units having the structure and 2,2,4,4-tetramethyl-1,3-cyclobutylene terephthalate repeating units having the structure wherein * indicates the position where the unit is connected to the polymer chain and wherein the total content by weight of components A)-C) is not less than 95 wt.%, relative to the total weight of the composition. A) 24 - 70 wt.% of an aromatic polycarbonate not being a polysiloxane-polycarbonate copolymer, B) 15 - 50 wt.% of a polysiloxane-polycarbonate copolymer, and C) 12 - 37 wt.% of an amorphous copolyester comprising 1,4-cyclohexanedimethylene terephthalate repeating units having the structure and 2,2,4,4-tetramethyl-1,3-cyclobutylene terephthalate repeating units having the structure wherein * indicates the position where the unit is connected to the polymer chain and wherein the total content by weight of components A)-C) is not less than 95 wt.%, relative to the total weight of the composition.
A method for monitoring a measuring point (MS) in an automation system, wherein the measuring point (MS) is attached to at least one system component (AK, AK'), in particular a container and/or a pipeline, in which a process medium is at least temporarily located, said system component (AK, AK') being incorporated into a technical process, wherein the measuring point (MS) comprises at least one field device (FG, FG'), which is adapted to detect and/or influence process variables of the process medium, and at least one communication means (KM), which is adapted to transmit the process variables detected by the field device (FG, FG') to a control center (LS) of the system, and wherein the process is adapted to a defined reference working point, wherein a working point defines the production of at least one product (PD) of predetermined quantity and quality from at least one reactant (ED) of predetermined quantity and quality using a quantity of energy, comprising: - Transmitting the process variables detected by the field device (FG, FG') to a service platform (SP), in particular a local or web-based service platform; - Storing the process variables in the service platform (SP); - Comparing a current working point at which the process is being operated with the reference working point on the basis of the stored process variables (T), wherein the reference working point represents a current working point of a further process or of a further sub-area of a process, which reference working point is continually updated; and - Generating and transmitting a maintenance notification (WN) to a user in the event that the current working point of the process exhibits a deviation (Δ) from the reference working point, which deviation (Δ) is greater than or equal to a predetermined value. - Transmitting the process variables detected by the field device (FG, FG') to a service platform (SP), in particular a local or web-based service platform; - Storing the process variables in the service platform (SP); - Comparing a current working point at which the process is being operated with the reference working point on the basis of the stored process variables (T), wherein the reference working point represents a current working point of a further process or of a further sub-area of a process, which reference working point is continually updated; and - Generating and transmitting a maintenance notification (WN) to a user in the event that the current working point of the process exhibits a deviation (Δ) from the reference working point, which deviation (Δ) is greater than or equal to a predetermined value.
A sheet transmission system comprising: a sheet stacking unit , set to store a sheet to be processed; a sheet position adjusting unit , set to adjust a position of the sheet; a sheet processing unit , set to conduct a predetermined process on the sheet transmitted therein; a sheet collection unit , set to collect the processed sheet; wherein said units are arranged in order along a transmission path of a sheet; and independent transmission units each of which is provided between two adjacent of the units above along the transmission path of the sheet; wherein each of the transmission units is set to conduct a reciprocating-linear movement between said two adjacent units along the transmission path of the sheet, so as to transmit the sheet between said two adjacent units ; and wherein the transmission path of the sheet has a first direction and a second direction being orthogonal to each other, and wherein the transmission unit provided between the sheet stacking unit and the sheet position adjusting unit is a first transmission unit , which is set to transmit the sheet in one of the first direction and the second direction between the sheet stacking unit and the sheet position adjusting unit ; wherein the transmission unit provided between the sheet processing unit and the sheet position adjusting unit is a second transmission unit , which is set to transmit the sheet in the other one of the first direction and the second direction with respect to the direction set for the first transmission unit between the sheet processing unit and the sheet position adjusting unit ; and wherein the transmission unit provided between the sheet processing unit and the sheet collection unit is a third transmission unit , which is set to transmit the sheet in the one of the first direction and the second direction between the sheet processing unit and the sheet collection unit ; characterized in that the sheet transmission system is set such that the sheet in process of being transmitted is not deflected around a vertical direction, the transmission direction provided by each transmission unit is set to be switchable at least one time when the sheet is conveyed, so as to make the whole system more compact and in particular reconfigurable whenever processing and spatial constraints require it, the second transmission unit is a gripping transmission unit which transmits the sheet by means of gripping an edge of the sheet, and the third transmission unit is a gripping transmission unit which transmits the sheet by means of gripping the edge of the sheet, the second transmission unit is set to grip a first side edge of the sheet to transmit the sheet to the sheet processing unit and the third transmission unit is set to grip a second side edge of the sheet, while the first side edge thereof is still gripped by the second transmission unit during a partial overlap of a transmission period of the second transmission unit with a transmission period of the third transmission unit .
A handle for use with a surgical instrument system, said handle comprising: a first handle housing portion comprising at least a first output rotatable about a first longitudinal axis; a second handle housing portion , comprising: at least a first electric motor comprising a first rotatable motor shaft ; at least a first actuator for operating said first electric motor ; and an articulation joint , wherein said second handle housing portion is rotatably connected to said first handle housing portion about said articulation joint , and wherein said second handle housing portion is rotatable between a first grip position and a second grip position, wherein said articulation joint is a hinge, said first grip position is a pistol grip position and said second grip position is an in-line grip position; at least a first transmission configured to transmit motion between said first motor shaft and said first output , wherein said first transmission is a flexible transmission. a first handle housing portion comprising at least a first output rotatable about a first longitudinal axis; a second handle housing portion , comprising: at least a first electric motor comprising a first rotatable motor shaft ; at least a first actuator for operating said first electric motor ; and at least a first electric motor comprising a first rotatable motor shaft ; at least a first actuator for operating said first electric motor ; and an articulation joint , wherein said second handle housing portion is rotatably connected to said first handle housing portion about said articulation joint , and wherein said second handle housing portion is rotatable between a first grip position and a second grip position, wherein said articulation joint is a hinge, said first grip position is a pistol grip position and said second grip position is an in-line grip position; at least a first transmission configured to transmit motion between said first motor shaft and said first output , wherein said first transmission is a flexible transmission.
On-board computer comprising a microprocessor chip with a bottom face and a top face , a chip carrier having at least two adjacent side walls and a top face on which the microprocessor chip is mounted, and a housing configured to dissipate heat generated by the microprocessor chip during operation, wherein an interposer is disposed between the top face of the microprocessor chip and the computer housing , the interposer being supported by the top face of the microprocessor chip and being configured to diffuse heat transmitted by the top face of the microprocessor chip to the computer housing , the interposer having a surface area for heat exchange with the computer housing which is at least twice as large as the surface area of the top face of the microprocessor chip , characterized in that the interposer has, on adjacent sides, two peripheral wedging edges , each of which comes into contact with a respective adjacent side wall of the chip carrier , the interposer having no more than two peripheral wedging edges , so as to leave the other sides of the interposer free.
Window assembly for a vehicle or building, particularly a side window for a high-speed passenger-train, comprising a glazing having one or more panes made of glass, plastic, and/or ceramic material, a window opening provided in a body of the vehicle or building, a frame like gasket provided between the glazing and the body and holding the glazing on the body within the window opening , at least one insert or pin for reinforcing the gasket , wherein the gasket comprises a gasket recess for accommodating and holding a glazing edge face or edge of the glazing , wherein the gasket recess of the gasket provides a circumferential gasket bottom , characterized in that the at least one insert or pin comprises a flanged head extending between the glazing edge face or edge and the gasket bottom of the gasket recess . a glazing having one or more panes made of glass, plastic, and/or ceramic material, a window opening provided in a body of the vehicle or building, a frame like gasket provided between the glazing and the body and holding the glazing on the body within the window opening , at least one insert or pin for reinforcing the gasket , wherein the gasket comprises a gasket recess for accommodating and holding a glazing edge face or edge of the glazing , wherein the gasket recess of the gasket provides a circumferential gasket bottom , characterized in that the at least one insert or pin comprises a flanged head extending between the glazing edge face or edge and the gasket bottom of the gasket recess .
A railing for a scaffold, in particular an advancing railing, comprising a frame with horizontally extending upper chord and lower chord and vertical frame members connecting them, and at least one strut pivotably connected to the lower chord, wherein the upper chord has first fastening means at its ends and the at least one pivotable strut has a second fastening means in its free end, wherein the lower chord has third fastening means at its ends, wherein the upper chord with the first fastening means and the lower chord with the third fastening means extend in a first plane, and either the at least one pivotable strut has an offset formed integrally in the strut in its respective end area such that an area between the offsets extends in a second plane offset relative to the first plane and parallel to the first plane, and the end areas extend in the first plane or in a third plane opposite to the second plane in relation to the first plane and parallel to the first plane, or in the first plane, or the pivotable strut has a first section starting at the pivoting point on the lower chord and a second section integrally formed in the strut and having the second fastening means , wherein the first section extends in a fourth plane offset and parallel to the first plane, and the second section extends in the first plane or in an fifth plane opposite in relation to the first plane and extending parallel to the first plane. wherein the lower chord has third fastening means at its ends, wherein the upper chord with the first fastening means and the lower chord with the third fastening means extend in a first plane, and either the at least one pivotable strut has an offset formed integrally in the strut in its respective end area such that an area between the offsets extends in a second plane offset relative to the first plane and parallel to the first plane, and the end areas extend in the first plane or in a third plane opposite to the second plane in relation to the first plane and parallel to the first plane, or in the first plane, or the pivotable strut has a first section starting at the pivoting point on the lower chord and a second section integrally formed in the strut and having the second fastening means , wherein the first section extends in a fourth plane offset and parallel to the first plane, and the second section extends in the first plane or in an fifth plane opposite in relation to the first plane and extending parallel to the first plane.
A method of forming a solid film on a lubricated surface comprising: placing a lubricant in a contact region defined by two surfaces in proximity, said lubricant comprising metal oxide nanocrystals that are at least partially capped with a capping agent, forming the solid film in the contact region defined by the two surfaces in proximity by sliding and/or rolling the two surfaces in proximity so as to produce pressure and/or shear stress on the lubricated surface sufficient to remove the capping agents from the nanocrystals and thereby cause the nanocrystals to bind with each other and to at least one of the two surfaces in proximity to form a solid film of bound metal oxide nanocrystals in the contact region which is adhered to the at least one of the two surfaces in proximity in said contact region. placing a lubricant in a contact region defined by two surfaces in proximity, said lubricant comprising metal oxide nanocrystals that are at least partially capped with a capping agent, forming the solid film in the contact region defined by the two surfaces in proximity by sliding and/or rolling the two surfaces in proximity so as to produce pressure and/or shear stress on the lubricated surface sufficient to remove the capping agents from the nanocrystals and thereby cause the nanocrystals to bind with each other and to at least one of the two surfaces in proximity to form a solid film of bound metal oxide nanocrystals in the contact region which is adhered to the at least one of the two surfaces in proximity in said contact region.
Method for producing a multi-layer body in the form of a security element, comprising the steps: a) generation of a metallic layer on a substrate; b) partial demetallisation of the metallic layer for forming a first piece of optical information in a first region of the multi-layer body ; c) application of a partial lacquer layer in a second region of the multi-layer body for forming a second piece of optical information , wherein the partial lacquer layer at least partially extends beyond the metallic layer ; d) structuring of the partial metallic layer in the second region by using the partial lacquer layer as a mask, wherein the partial metallic layer either selectively remains in the regions that are covered by the partial lacquer layer or is selectively removed. a) generation of a metallic layer on a substrate; b) partial demetallisation of the metallic layer for forming a first piece of optical information in a first region of the multi-layer body ; c) application of a partial lacquer layer in a second region of the multi-layer body for forming a second piece of optical information , wherein the partial lacquer layer at least partially extends beyond the metallic layer ; d) structuring of the partial metallic layer in the second region by using the partial lacquer layer as a mask, wherein the partial metallic layer either selectively remains in the regions that are covered by the partial lacquer layer or is selectively removed.
A method of wireless communication at a base station, comprising: determining a configuration of a plurality of discontinuous reception, DRX, groups for communicating with a user equipment, UE; configuring the UE with a configuration of a first DRX group for a first set of serving cells, the configuration of the first DRX group includes respective DRX parameters; and configuring the UE with a configuration of a second DRX group for a second set of serving cells, the configuration of the second DRX group includes respective DRX parameters, wherein a start position of a first on-state of the first DRX group indicated as a DRX parameter in the configuration of the first DRX group and a start position of a second on-state of the second DRX group indicated as a DRX parameter in the configuration of the second DRX group are configured to be aligned. determining a configuration of a plurality of discontinuous reception, DRX, groups for communicating with a user equipment, UE; configuring the UE with a configuration of a first DRX group for a first set of serving cells, the configuration of the first DRX group includes respective DRX parameters; and configuring the UE with a configuration of a second DRX group for a second set of serving cells, the configuration of the second DRX group includes respective DRX parameters, wherein a start position of a first on-state of the first DRX group indicated as a DRX parameter in the configuration of the first DRX group and a start position of a second on-state of the second DRX group indicated as a DRX parameter in the configuration of the second DRX group are configured to be aligned.