mhurhangee/ep-ind-claims huggingface dataset:
System component (58; 28, 42, 44, 46, 48) for a coordinate measuring machine for establishing three-dimensional coordinates of an object to be measured, wherein the system component (58; 28, 42, 44, 46, 48) has a first interchange area embodied to form an interface arrangement with a second interchange area of a second system component (60; 28, 42, 44, 46, 48), by means of which interface arrangement the system component (58; 28, 42, 44, 46, 48) and the second system component (60; 28, 42, 44, 46, 48) are coupled to one another, wherein the first interchange area has a central region and an outer region surrounding the central region, wherein the central region has an optical interface device, wherein the outer region has bearing elements (106, 108) of a three-point bearing for unique positioning of the system component (58; 28, 42, 44, 46, 48) and the second system component (60; 28, 42, 44, 46, 48) relative to one another, and wherein the outer region has at least one holding element of a holding device for holding the first system component (58; 28, 42, 44, 46, 48) against the second system component (60; 28, 42, 44, 46, 48), and wherein the outer region has at least one electrical interface device, characterized in that, moreover, at least one further optical interface device is formed between the system component (58; 28, 42, 44, 46, 48) and the second system component (60; 28, 42, 44, 46, 48) in the outer region and wherein the at least one further optical interface device in the outer region is embodied for data transmission.
A high-voltage wire comprising a plurality of conductors (22, 42, 52, 62, 72, 82, 92), and an insulator (23, 43, 53, 63, 73, 83, 93,) which aligns and collectively coats the plurality of conductors (22, 42, 52, 62, 72, 82, 92), wherein a thickness of the insulator (23, 43, 53, 63, 73, 83, 93) at an adjacent part (24, 44, 54, 64, 74, 84, 94) sandwiched by the adjacent conductors (22, 42, 52, 62, 72, 82, 92) is smaller than the thickness of the insulator (23, 43, 53, 63, 73, 83, 93) at a nonadjacent part (25, 45, 55, 65, 75, 85, 95), the thickness of the insulator (23, 43, 53, 63, 73, 83, 93) at the adjacent part (24, 44, 54, 64, 74, 84, 94) is set so as to ensure withstanding voltage, and the thickness of the insulator (23, 43, 53, 63, 73, 83, 93) at the nonadjacent part (25, 45, 55, 65, 75, 85, 95) is set to ensure abrasion resistance.
A gas turbine engine, comprising: a first stage compressor; an intercooler in fluid communication with the first stage compressor and configured to cool working fluid as it exits the first stage compressor; a second stage compressor in fluid communication with the intercooler; a combustor in fluid communication with the second stage compressor; and a recuperator in fluid communication with the combustor and configured to heat the working fluid as it exits the second stage compressor using engine exhaust, wherein the intercooler and recuperator are arranged radially outboard of the combustor, characterised in that the second stage compressor is a reverse flow high-pressure compressor configured to convey working fluid axially forward and radially outward with respect to a rotation axis of the engine. a first stage compressor; an intercooler in fluid communication with the first stage compressor and configured to cool working fluid as it exits the first stage compressor; a second stage compressor in fluid communication with the intercooler; a combustor in fluid communication with the second stage compressor; and a recuperator in fluid communication with the combustor and configured to heat the working fluid as it exits the second stage compressor using engine exhaust, wherein the intercooler and recuperator are arranged radially outboard of the combustor, characterised in that the second stage compressor is a reverse flow high-pressure compressor configured to convey working fluid axially forward and radially outward with respect to a rotation axis of the engine.
A control system for a wind turbine comprising: one or more measurement devices, wherein the one or more measurement devices are configured to measure one or more operating conditions of a wind turbine; a controller; and a memory associated with the controller, wherein the controller is configured to: receive the one or more measured operating conditions from the one or more measurement devices; retrieve one or more preset values including an initial torque setpoint for the wind turbine and one or more of an altitude of the wind turbine and a turbulence density from the memory; determine an adjusted torque setpoint for the wind turbine based at least in part on one or more operating conditions received from one or more measurement devices associated with the wind turbine; and adjust a real power output rating in the controller for the wind turbine based on the determined adjusted torque setpoint; characterized in that adjusting the real power output rating comprises derating the real power output rating of the wind turbine based on the determined adjusted torque setpoint and derating an initial real power output rating of the wind turbine by about 0.10 percent or greater based on the determined adjusted torque setpoint when the system power factor is between -0.90 to and including about -0.95. one or more measurement devices, wherein the one or more measurement devices are configured to measure one or more operating conditions of a wind turbine; a controller; and a memory associated with the controller, wherein the controller is configured to: receive the one or more measured operating conditions from the one or more measurement devices; retrieve one or more preset values including an initial torque setpoint for the wind turbine and one or more of an altitude of the wind turbine and a turbulence density from the memory; determine an adjusted torque setpoint for the wind turbine based at least in part on one or more operating conditions received from one or more measurement devices associated with the wind turbine; and adjust a real power output rating in the controller for the wind turbine based on the determined adjusted torque setpoint; receive the one or more measured operating conditions from the one or more measurement devices; retrieve one or more preset values including an initial torque setpoint for the wind turbine and one or more of an altitude of the wind turbine and a turbulence density from the memory; determine an adjusted torque setpoint for the wind turbine based at least in part on one or more operating conditions received from one or more measurement devices associated with the wind turbine; and adjust a real power output rating in the controller for the wind turbine based on the determined adjusted torque setpoint; characterized in that adjusting the real power output rating comprises derating the real power output rating of the wind turbine based on the determined adjusted torque setpoint and derating an initial real power output rating of the wind turbine by about 0.10 percent or greater based on the determined adjusted torque setpoint when the system power factor is between -0.90 to and including about -0.95.
A method of powder-bed based additive manufacture in a three-dimensional space corresponding to longitudinal, lateral, and transverse directions that are orthogonal to one another, the method comprising the steps of: sequentially advancing each portion of a continuous part in the longitudinal direction from a first zone to a second zone; wherein advancing of each portion of the continuous part is performed by a conveyor positioned below at least a portion of an energy-patterning system (110, 310); melting, sintering, or fusing, within the first zone, selected granules of a granular material by directing a two-dimensional patterned energy beam at the selected granules; wherein the melting, sintering, or fusing further comprises creating a wall from certain granules of the granular material, wherein the wall separates a first portion of the granular material from a second portion of the granular material; removing, within the second zone, unamalgamated granules of the granular material; and advancing a first portion of the continuous part from the second zone to a third zone while 1) a last portion of the continuous part is formed within the first zone and 2) the first portion is maintained in the same position in the lateral and transverse directions that the first portion occupied within the first zone and the second zone. sequentially advancing each portion of a continuous part in the longitudinal direction from a first zone to a second zone; wherein advancing of each portion of the continuous part is performed by a conveyor positioned below at least a portion of an energy-patterning system (110, 310); melting, sintering, or fusing, within the first zone, selected granules of a granular material by directing a two-dimensional patterned energy beam at the selected granules; wherein the melting, sintering, or fusing further comprises creating a wall from certain granules of the granular material, wherein the wall separates a first portion of the granular material from a second portion of the granular material; removing, within the second zone, unamalgamated granules of the granular material; and advancing a first portion of the continuous part from the second zone to a third zone while 1) a last portion of the continuous part is formed within the first zone and 2) the first portion is maintained in the same position in the lateral and transverse directions that the first portion occupied within the first zone and the second zone.
A method to mark a media content sequence in a digital data stream received by a receiver device, the receiver device comprising at least one processor, memories, a descrambler and a decoder producing a clear sequence of media content, said sequence comprising a succession of media frames (F 1, F 2,...F N-1, F N), the method is characterized in that it comprises steps of: selecting, by the decoder, at least two decoded consecutive media frames (F N-1, F N) from the clear media content sequence, inserting by a marking module a transition effect between the at least two selected decoded consecutive media frames (F N-1, F N) including a preceding media frame (F N-1) and at least one immediately following media frame (F N), the transition effect being retrieved from a library of transition effects stored in a memory associated to the marking module and applied on the basis of the preceding media frame (F N-1) and the at least one immediately following media frame (F N), the at least two decoded consecutive media frames (F N-1, F N) being selected by the decoder according to a predefined code previously stored in a configuration setting memory of the receiver device, the code comprising instructions and parameters indicating a type of transition effect and locations where to insert transition effects, assigning a secrete symbol to the inserted transition effect, the secrete symbol being formed by a bit string associated to all or part of a unique identifier specific to the receiver device, outputting a modified clear sequence of media content (MD M) comprising at least one transition effect between the at least two previously selected consecutive media frames (F N-1, F N). selecting, by the decoder, at least two decoded consecutive media frames (F N-1, F N) from the clear media content sequence, inserting by a marking module a transition effect between the at least two selected decoded consecutive media frames (F N-1, F N) including a preceding media frame (F N-1) and at least one immediately following media frame (F N), the transition effect being retrieved from a library of transition effects stored in a memory associated to the marking module and applied on the basis of the preceding media frame (F N-1) and the at least one immediately following media frame (F N), the at least two decoded consecutive media frames (F N-1, F N) being selected by the decoder according to a predefined code previously stored in a configuration setting memory of the receiver device, the code comprising instructions and parameters indicating a type of transition effect and locations where to insert transition effects, assigning a secrete symbol to the inserted transition effect, the secrete symbol being formed by a bit string associated to all or part of a unique identifier specific to the receiver device, outputting a modified clear sequence of media content (MD M) comprising at least one transition effect between the at least two previously selected consecutive media frames (F N-1, F N).
A modular computing system comprising: a peripheral device (102, 400) including: a module interface to receive power and data communication from a computing device (104, 500); an attachment tab (108a-d) to affix the peripheral device to a lower side of the computing device; an upper side including a raised region and a recessed region defined by the raised region, a latch to control an engagement of the attachment tab with the computing device, the latch being movable between a locked position and an unlocked position and wherein, in the unlocked position, the attachment tab (108-d) is retracted into the raised region and wherein, in the locked position, the attachment tab (108a-d) extends from the raised region into the recessed region; a sensing circuit to detect a change in position of the latch, wherein the change in position of the latch creates an open circuit, and wherein the sensing circuit is configured to detect the open circuit and is configured to indicate to a controller that an open circuit is present; and the controller configured to, in response to detecting the open circuit via the sensing circuit, indicate a hot unplug prediction to the computing device via the module interface. a module interface to receive power and data communication from a computing device (104, 500); an attachment tab (108a-d) to affix the peripheral device to a lower side of the computing device; an upper side including a raised region and a recessed region defined by the raised region, a latch to control an engagement of the attachment tab with the computing device, the latch being movable between a locked position and an unlocked position and wherein, in the unlocked position, the attachment tab (108-d) is retracted into the raised region and wherein, in the locked position, the attachment tab (108a-d) extends from the raised region into the recessed region; a sensing circuit to detect a change in position of the latch, wherein the change in position of the latch creates an open circuit, and wherein the sensing circuit is configured to detect the open circuit and is configured to indicate to a controller that an open circuit is present; and the controller configured to, in response to detecting the open circuit via the sensing circuit, indicate a hot unplug prediction to the computing device via the module interface.
A process for producing a quartz glass component for use in semiconductor manufacture in that an initial average surface roughness R a,0 is produced by mechanically machining the surface of a quartz glass blank, and the component surface machined in this way is subjected to an etching treatment, characterized in that an initial average surface roughness R a,0 of at least 0.3 μm and not more than 1.6 μm is set by the mechanical machining, and that the etching treatment is of an intensity and duration such that an actual etching depth is obtained which is higher than a minimum etching depth min defined with respect to R a,0, said minimum etching depth min is in the range between 15 μm and 120 μm, and at an initial average surface roughness R a,0 of 0.4 μm or more, it satisfies the following dimensioning rule: etching depth min in μm = 70 + 60 × In R a, 0 in μm
Saponin according to formula: wherein R 1 is, independently from other R1 residues in the same molecule, H or an acetyl residue, with the proviso that at least two R1 residues are acetyl residues; and R 2 is, independently from other R2 residues in the same molecule, H or an acetyl residue, with the proviso that at least two R2 residues are acetyl residues. R 1 is, independently from other R1 residues in the same molecule, H or an acetyl residue, with the proviso that at least two R1 residues are acetyl residues; and R 2 is, independently from other R2 residues in the same molecule, H or an acetyl residue, with the proviso that at least two R2 residues are acetyl residues.
Multi-stage piston compressor with a compressor unit having a plurality of air-cooled cylinders (10a-10c), whose crankshaft is housed in a crankcase and drives a motor unit that is flange-mounted on an end face on said compressor unit, while on the opposing end face of the compressor unit is arranged a cooler unit, mounted on said compressor unit and driven by the crankshaft, the integrated axial fan wheel of said cooler unit blowing the generated cooling air substantially outward along the compressor unit, wherein, for the conducting of cooling air externally in the region of the compressor unit, at least one air guide housing which extends at least partially radially around the crankcase in a curved manner is mounted on the cooler unit on the air inlet side and is mounted on the cranckase of the compressor unit on the air outlet side, such that the axial air flow which is generated by the axial fan wheel is at least partially taken in by the air guide housing and at least partially guided around the crankcase in the radial direction so as to reach at least one cylinder arranged on the air outlet side of the air guide housing, characterized in that at least one fin (15a, 15b) for deflecting the cooling air is arranged at the inside of the wall of the air guide housing, extending radially in the direction of the crankcase, and in that two opposing fins (15a, 15b) which are spaced apart are arranged in the region in front of the cylinder being cooled on the air guide housing.
A vehicular mobile apparatus for device to device, D2D, data transmissions to one or more receiving entities, wherein the vehicular mobile apparatus comprises: a transmitter configured to transmit information on the D2D data transmissions with different possible transmission periodicities and/or different possible message sizes to a radio base station responsible for allocating radio resources to the vehicular mobile apparatus, the transmitted information on the D2D data transmissions assisting the radio base station to determine the different possible transmission periodicities and/or the different possible message sizes of the one or more D2D data transmissions; a receiver configured to receive from the radio base station a plurality of semi-persistent radio resource configurations configured by the radio base station based on the received information on the D2D data transmissions, each of the plurality of semi-persistent radio resource configurations being configured for being usable for at least one of the D2D data transmissions, and to receive from the radio base station an activation command to activate one or more of the plurality of semi-persistent radio resource configurations to periodically allocate radio resources for the vehicular mobile apparatus for each of the D2D data transmissions; and the transmitter configured to perform the one or more D2D data transmissions to the one or more receiving entities based on the radio resources and the transmission periodicities as configured by the activated one or more semi-persistent radio resource configurations. a transmitter configured to transmit information on the D2D data transmissions with different possible transmission periodicities and/or different possible message sizes to a radio base station responsible for allocating radio resources to the vehicular mobile apparatus, the transmitted information on the D2D data transmissions assisting the radio base station to determine the different possible transmission periodicities and/or the different possible message sizes of the one or more D2D data transmissions; a receiver configured to receive from the radio base station a plurality of semi-persistent radio resource configurations configured by the radio base station based on the received information on the D2D data transmissions, each of the plurality of semi-persistent radio resource configurations being configured for being usable for at least one of the D2D data transmissions, and to receive from the radio base station an activation command to activate one or more of the plurality of semi-persistent radio resource configurations to periodically allocate radio resources for the vehicular mobile apparatus for each of the D2D data transmissions; and the transmitter configured to perform the one or more D2D data transmissions to the one or more receiving entities based on the radio resources and the transmission periodicities as configured by the activated one or more semi-persistent radio resource configurations.
A measuring apparatus comprising: an imaging optical system configured to form an image of an object to be measured; and an imaging section including a transmissive member which is arranged in the vicinity of an image plane of the imaging optical system to be inclined with respect to an optical axis of the imaging optical system; wherein the imaging optical system includes a first optical member (48, 49, 51, 52, 61) which is non-coaxial with respect to the optical axis, and which has a surface that is rotationally symmetric about a first symmetry axis, wherein the transmissive member is arranged along the image plane, and is a plate-shaped member via which a light flux condensed by the imaging optical system is transmitted, wherein the first symmetry axis is inclined, with respect to the optical axis, in a plane that is perpendicular to an intersection line between a plane including an object plane and a plane including the image plane, and the first optical member is inclined in an opposite direction to a direction in which the transmissive member is inclined with respect to the optical axis. an imaging optical system configured to form an image of an object to be measured; and an imaging section including a transmissive member which is arranged in the vicinity of an image plane of the imaging optical system to be inclined with respect to an optical axis of the imaging optical system; wherein the imaging optical system includes a first optical member (48, 49, 51, 52, 61) which is non-coaxial with respect to the optical axis, and which has a surface that is rotationally symmetric about a first symmetry axis, wherein the transmissive member is arranged along the image plane, and is a plate-shaped member via which a light flux condensed by the imaging optical system is transmitted, wherein the first symmetry axis is inclined, with respect to the optical axis, in a plane that is perpendicular to an intersection line between a plane including an object plane and a plane including the image plane, and the first optical member is inclined in an opposite direction to a direction in which the transmissive member is inclined with respect to the optical axis.
A block copolymer of the following Chemical Formula 1: wherein in Chemical Formula 1: X 1 and X 2 are each independently an ester bond, an amide bond, a urethane bond, a urea bond, or a carbonate bond; L is a substituted or unsubstituted C 1-10 alkylene, a substituted or unsubstituted C 6-60 arylene, or a substituted or unsubstituted C 2-60 heteroarylene including one or more heteroatoms selected from the group consisting of O, N, Si, and S; and n and m are each independently an integer from 1 to 10,000. X 1 and X 2 are each independently an ester bond, an amide bond, a urethane bond, a urea bond, or a carbonate bond; L is a substituted or unsubstituted C 1-10 alkylene, a substituted or unsubstituted C 6-60 arylene, or a substituted or unsubstituted C 2-60 heteroarylene including one or more heteroatoms selected from the group consisting of O, N, Si, and S; and n and m are each independently an integer from 1 to 10,000.