mhurhangee/ep-ind-claims huggingface dataset:
An aircraft brake system comprising: a brake pedal assembly; a linear differential variable transformer ("LVDT") coupled to the brake pedal assembly; and a brake control unit ("BCU"), the BCU comprising: a hardware module configured to measure an output voltage of the LVDT; a software module configured to measure the output voltage of the LVDT; and an offset module configured to offset the output voltage measured by the software module; and wherein the offset module comprises an offset voltage stored in a non-transitory memory of the offset module; and characterized in that the offset voltage comprises a difference between a preprogrammed software threshold voltage and a calculated software threshold voltage. a brake pedal assembly; a linear differential variable transformer ("LVDT") coupled to the brake pedal assembly; and a brake control unit ("BCU"), the BCU comprising: a hardware module configured to measure an output voltage of the LVDT; a software module configured to measure the output voltage of the LVDT; and an offset module configured to offset the output voltage measured by the software module; and wherein the offset module comprises an offset voltage stored in a non-transitory memory of the offset module; and characterized in that a hardware module configured to measure an output voltage of the LVDT; a software module configured to measure the output voltage of the LVDT; and an offset module configured to offset the output voltage measured by the software module; and wherein the offset module comprises an offset voltage stored in a non-transitory memory of the offset module; and characterized in that the offset voltage comprises a difference between a preprogrammed software threshold voltage and a calculated software threshold voltage.
A signal processing device comprising: a noise detection unit comprising a microphone array (81,85, 201, 203) configured to detect control area internal noise generated in a control area formed by the microphone array(81,85); a speaker array (93, 202); an adaptive filter unit configured to generate a signal for an output sound to be output by the speaker array (93, 202) on a basis of a signal obtained by sound collection using the microphone array and a filter coefficient; and a control unit configured to control update of the filter coefficient of the adaptive filter, on a basis of a detection result of the control area internal noise in order to reduce external noise to a noise canceling area formed by the speaker array (93, 202), wherein the microphone array (81,85, 201, 203) comprises a reference microphone array (81, 201) and an error microphone array (85, 203); wherein the reference microphone array (81, 201) is arranged linear side by side in a rectangular frame shape and the error microphone (85, 203) array is arranged linear side by side in a rectangular frame shape, wherein the speaker array (93, 202) comprises a rectangular frame shaped speaker array including four linear speaker arrays arranged in an area surrounded by the rectangular frame-shaped reference microphone array; and wherein the rectangular frame-shaped error microphone array is arranged in an area surrounded by the rectangular frame-shaped speaker array. a noise detection unit comprising a microphone array (81,85, 201, 203) configured to detect control area internal noise generated in a control area formed by the microphone array(81,85); a speaker array (93, 202); an adaptive filter unit configured to generate a signal for an output sound to be output by the speaker array (93, 202) on a basis of a signal obtained by sound collection using the microphone array and a filter coefficient; and a control unit configured to control update of the filter coefficient of the adaptive filter, on a basis of a detection result of the control area internal noise in order to reduce external noise to a noise canceling area formed by the speaker array (93, 202), wherein the microphone array (81,85, 201, 203) comprises a reference microphone array (81, 201) and an error microphone array (85, 203); wherein the reference microphone array (81, 201) is arranged linear side by side in a rectangular frame shape and the error microphone (85, 203) array is arranged linear side by side in a rectangular frame shape, wherein the speaker array (93, 202) comprises a rectangular frame shaped speaker array including four linear speaker arrays arranged in an area surrounded by the rectangular frame-shaped reference microphone array; and wherein the rectangular frame-shaped error microphone array is arranged in an area surrounded by the rectangular frame-shaped speaker array.
An integrated circuit comprising: a first network interface processor for communicating with a first network; a second network interface processor for communicating with a second network, wherein the second network interface processor is a separate processor from the first network interface processor; and a first unidirectional interconnect connecting the first and second network interface processors; wherein the first unidirectional interconnect is configured to allow data transfer from the first network interface processor to the second network interface processor via the first unidirectional interconnect and to prevent data transfer from the second network interface processor to the first network interface processor via the first unidirectional interconnect, wherein the first unidirectional interconnect comprises a first switch configured to disable the first unidirectional interconnect such that no data transfer between the first network interface processor and the second network interface processor via the first unidirectional interconnect is possible when the first switch is open, operation of the first switch being made from a secure area having a root of trust, wherein the first network interface processor is configured to transmit data to the second network interface processor via the first unidirectional interconnect; and the second network interface processor is configured to receive data from the first network interface processor via the first unidirectional interconnect. a first network interface processor for communicating with a first network; a second network interface processor for communicating with a second network, wherein the second network interface processor is a separate processor from the first network interface processor; and a first unidirectional interconnect connecting the first and second network interface processors; wherein the first unidirectional interconnect is configured to allow data transfer from the first network interface processor to the second network interface processor via the first unidirectional interconnect and to prevent data transfer from the second network interface processor to the first network interface processor via the first unidirectional interconnect, wherein the first unidirectional interconnect comprises a first switch configured to disable the first unidirectional interconnect such that no data transfer between the first network interface processor and the second network interface processor via the first unidirectional interconnect is possible when the first switch is open, operation of the first switch being made from a secure area having a root of trust, wherein the first network interface processor is configured to transmit data to the second network interface processor via the first unidirectional interconnect; and the second network interface processor is configured to receive data from the first network interface processor via the first unidirectional interconnect.
Method for operating an apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, wherein irradiation data define at least two regions (8, 9) of object data relating to a three-dimensional object, which regions (8, 9) are irradiated based on at least two different irradiation parameters, wherein at least one first irradiation parameter is assigned to at least one first region and at least one second irradiation parameter is assigned to at least one second region based on a geometry information of the first region and the second region and/or at least one first region is irradiated based on at least one first irradiation parameter and at least one second region is irradiated based on at least one second irradiation parameter based on a geometry information of the first region and the second region, characterized in that intermediate object data are generated based on the object data relating to a geometry of the three-dimensional object, wherein - at least one part of a contour of the three-dimensional object that is defined by the original object data of the three-dimensional object is decreased by a threshold value and - structures of the object that are defined by the original object data comprising a corresponding dimension below the threshold value are removed and - the at least one part of the contour is increased to the initial value. - at least one part of a contour of the three-dimensional object that is defined by the original object data of the three-dimensional object is decreased by a threshold value and - structures of the object that are defined by the original object data comprising a corresponding dimension below the threshold value are removed and - the at least one part of the contour is increased to the initial value.
A process for forming a metal container (700, 190) from a provided container having a sidewall (800, 192), wherein the sidewall (800, 192) has a thickness and a height, and wherein the thickness varies along the height of the sidewall (800, 192) by at least 0.03 mm (0.001 inch), wherein the process comprises the following step: - necking the provided container with a necking die (196, 270) so that a working surface of the necking die (196, 270) contacts a section of the sidewall (800, 192) and reduces a diameter of the section of the sidewall (800, 192) by at least 2% in a single stroke, wherein the thickness of the section of the sidewall (800, 192) varies along the height of the sidewall (800, 192) by at least 0.03 mm (0.001 inch) before and after necking. - necking the provided container with a necking die (196, 270) so that a working surface of the necking die (196, 270) contacts a section of the sidewall (800, 192) and reduces a diameter of the section of the sidewall (800, 192) by at least 2% in a single stroke, wherein the thickness of the section of the sidewall (800, 192) varies along the height of the sidewall (800, 192) by at least 0.03 mm (0.001 inch) before and after necking.
A purge flow delivery system for turbine wheel space cooling comprising: a mixing chamber comprising a first sidewall, a second sidewall, and a cover plate; a first inlet tube positioned about the first sidewall, the first inlet tube configured to deliver a first fluid to the mixing chamber; a second inlet tube positioned about the second sidewall, the second inlet tube configured to deliver a second fluid to the mixing chamber; a baffle plate attached to the cover plate and positioned to direct the first fluid at a first angle and the second fluid at a second angle; and characterized in that the purge flow delivery system is configured to be positioned at a wheel space of a rotor. a mixing chamber comprising a first sidewall, a second sidewall, and a cover plate; a first inlet tube positioned about the first sidewall, the first inlet tube configured to deliver a first fluid to the mixing chamber; a second inlet tube positioned about the second sidewall, the second inlet tube configured to deliver a second fluid to the mixing chamber; a baffle plate attached to the cover plate and positioned to direct the first fluid at a first angle and the second fluid at a second angle; and characterized in that the purge flow delivery system is configured to be positioned at a wheel space of a rotor.
A computer-implemented method for pixel mapping between an origin superpixel in a first image and a target superpixel in a second image, the method comprising: - determining feature vectors of origin pixels of the origin superpixel; - determining feature vectors of target pixels of the target superpixel; and - selecting a mapping pixel for an origin pixel among the target pixels based on a comparison of the feature vectors, wherein a feature vector of a pixel comprises a relative distance of the pixel to a mass center of the superpixel and a topology value of the pixel. - determining feature vectors of origin pixels of the origin superpixel; - determining feature vectors of target pixels of the target superpixel; and - selecting a mapping pixel for an origin pixel among the target pixels based on a comparison of the feature vectors,
The anti-angiogenic tyrosine kinase inhibitor sorafenib for use in a method of treating metastatic cancer in a subject, the subject having been previously subjected to a vaccinia virus therapy, wherein the vaccinia virus is a vaccinia virus expressing GM-CSF and lacking a functional thymidine kinase gene, wherein the anti-angiogenic tyrosine kinase inhibitor is administered at most 13 weeks after vaccinia virus therapy, and wherein the vaccinia virus was administered intravascularly, or both intravascularly and intratumorally.
An exhaust gas sensor abnormality diagnostic device, comprising: an exhaust gas sensor which is positioned in an exhaust path of an internal combustion engine, includes a sensor element positioned between external air and exhaust gas, and generates an output signal correlated with the oxygen partial pressure difference between the external air and the exhaust gas; and a control unit which is configured to determine whether the exhaust gas is lean or not; and judge whether execution conditions are established in a period before an abnormality diagnosis of element breakage in the exhaust gas sensor is executed, and when the execution conditions are judged to be established, to start to make the abnormality diagnosis, characterized in that the control unit is configured to, when the abnormality diagnosis is started, to detect an output signal generated by the exhaust gas sensor during a period which is subsequent to a period during which the air-fuel ratio of exhaust gas has been determined as lean, when the detected output signal is a negative voltage signal, the control unit is configured to judge that the exhaust gas sensor is abnormal due to a broken element thereof, and the control unit is configured to conclude that the execution conditions are not established during a lean period during which an air-fuel ratio of the exhaust gas has been determined as lean. an exhaust gas sensor which is positioned in an exhaust path of an internal combustion engine, includes a sensor element positioned between external air and exhaust gas, and generates an output signal correlated with the oxygen partial pressure difference between the external air and the exhaust gas; and a control unit which is configured to determine whether the exhaust gas is lean or not; and judge whether execution conditions are established in a period before an abnormality diagnosis of element breakage in the exhaust gas sensor is executed, and when the execution conditions are judged to be established, to start to make the abnormality diagnosis, determine whether the exhaust gas is lean or not; and judge whether execution conditions are established in a period before an abnormality diagnosis of element breakage in the exhaust gas sensor is executed, and when the execution conditions are judged to be established, to start to make the abnormality diagnosis, characterized in that the control unit is configured to, when the abnormality diagnosis is started, to detect an output signal generated by the exhaust gas sensor during a period which is subsequent to a period during which the air-fuel ratio of exhaust gas has been determined as lean, when the detected output signal is a negative voltage signal, the control unit is configured to judge that the exhaust gas sensor is abnormal due to a broken element thereof, and the control unit is configured to conclude that the execution conditions are not established during a lean period during which an air-fuel ratio of the exhaust gas has been determined as lean.
Furnishing element comprising a frame having at least a first and a second wall (12, 16) incident to each other so as to identify a edge, at least one coating associated with and superposed on said frame so as to coat at least partially said walls (12,16) and said edge, wherein the frame, at said edge, comprises an attachment element which delimits an attachment seat open in the vicinity of said first and second wall (12,16), wherein the coating comprises at least two flaps folded and inserted inside the attachment seat, said attachment seat blocking the flaps inside it against inner walls of said seat, characterised in that the attachment element is an applied element and joined to the first and second walls (12, 16) of the frame at the edge identified thereby.
A film feeding system for a conveyor of a product packing machine, in which the conveyor comprises a plurality of modules forming an endless chain moving intermittently along a longitudinal axis of conveyor and the products are placed on the individual modules between a lower film and an upper film, the lower film and the upper film being sealed with each other and the film feeding system comprising at least one lower film feeding assembly and at least one upper film feeding assembly, wherein the lower film feeding assembly comprises at least one roll (5', 5") for feeding the lower film, and the upper film feeding assembly comprises at least one roll (6', 6") for feeding the upper film, characterized in that the direction of feeding the film (5a, 6a) into the modular conveyor in both film feeding assemblies (5, 6) is transversal to the longitudinal axis of the conveyor.
Method of providing a user with data relating to an element in a process being presented on a display of a work station of a process control system, comprising the steps of: providing a representation of a number of process elements (22, 24, 26, 28, 30, 32) on the display as manipulable graphical symbols, receiving media data that has been recorded by a media recording device, where said media recording device is not associated with any element (22, 24, 26, 28, 30, 32) but with the work station or the system and is configured to send media data to the process control system directly after it has been recorded, said media recording device being provided with an element determination data obtaining unit for reading a tag on the element (22, 24, 26, 28, 30, 32) with an element identifier of said element and providing the element identifier to the system when the media is recorded, and presenting at least the existence of the media data for the user via the display, receiving said element identifier together with said media data, comparing the element identifier with corresponding element identifying data stored for the various elements (22, 24, 26, 28, 30, 32) of the system, identifying a system element based on the comparison and providing an indication of which presented graphical symbol corresponds to the identified element (22, 24, 26, 28, 30, 32) as the existence of the media is presented, wherein the system element is a field device influencing or measuring different properties in the process, the media data is of a media data type of sound, still images, video or combined sound and video and the media recording device is a sound recording device, a still image recording device, a moving image recording device or a combined moving image and sound recording device. providing a representation of a number of process elements (22, 24, 26, 28, 30, 32) on the display as manipulable graphical symbols, receiving media data that has been recorded by a media recording device, where said media recording device is not associated with any element (22, 24, 26, 28, 30, 32) but with the work station or the system and is configured to send media data to the process control system directly after it has been recorded, said media recording device being provided with an element determination data obtaining unit for reading a tag on the element (22, 24, 26, 28, 30, 32) with an element identifier of said element and providing the element identifier to the system when the media is recorded, and presenting at least the existence of the media data for the user via the display, receiving said element identifier together with said media data, comparing the element identifier with corresponding element identifying data stored for the various elements (22, 24, 26, 28, 30, 32) of the system, identifying a system element based on the comparison and providing an indication of which presented graphical symbol corresponds to the identified element (22, 24, 26, 28, 30, 32) as the existence of the media is presented,
A route management method, comprising: creating, by a Media Gateway, MG, a route Internet Protocol Router, IPR, context that describes one route record in a routing table; creating an interface IPR context for interfaces of the MG, wherein the interface IPR context describes a connection between the interfaces of the MG, and wherein each interface IPR context includes a group of interfaces of the MG and an IP packet can be forwarded between the interfaces in the same interface IPR context, but cannot be forwarded between interfaces in different interface IPR contexts; creating a correlation between the interface IPR context and the route IPR context through setting a context identifier, ID, of a relevant interface IPR context, which include same interfaces as the route IPR context, in the route IPR context; searching for the route record in route IPR contexts containing the context ID of the relevant interface IPR context; and managing the route record by operating the route IPR context. creating, by a Media Gateway, MG, a route Internet Protocol Router, IPR, context that describes one route record in a routing table; creating an interface IPR context for interfaces of the MG, wherein the interface IPR context describes a connection between the interfaces of the MG, and wherein each interface IPR context includes a group of interfaces of the MG and an IP packet can be forwarded between the interfaces in the same interface IPR context, but cannot be forwarded between interfaces in different interface IPR contexts; creating a correlation between the interface IPR context and the route IPR context through setting a context identifier, ID, of a relevant interface IPR context, which include same interfaces as the route IPR context, in the route IPR context; searching for the route record in route IPR contexts containing the context ID of the relevant interface IPR context; and managing the route record by operating the route IPR context.
A frame member (1, 100) for a display frame, the frame member (1, 100) comprising a beam (1, 100) with a continuous portion that comprises a side of the beam, and comprising a continuous longitudinal engaging feature extending along the full length of the beam for removably and slideably engaging a co-operating member (7, 71, 72, 73, 107) and a segmented portion interconnected by connecting portions provided by the continuous side of the beam (1, 100), the segmented portion comprising a plurality of segments extending from only one side of the continuous side of the beam (1, 100), wherein the frame member comprises an extrusion with a substantially constant cross section that is at least partially segmented along its length such that at least a portion of the frame member may be curved, in use, by deflecting or flexing the connecting portions, thereby varying the separation between at least two adjacent segments of the segmented portion.