mhurhangee/ep-ind-claims huggingface dataset:
A method for synchronising display data streams comprising: receiving at receiver logic a first display data stream (Disp_int) from a frame buffer of a system to drive a display; receiving at the receiver logic (106 a second display data stream (Disp_ext) from a source external to said system; determining by measurement logic (202, 204) a temporal offset (T_vals, 436) between vertical sync signals (Vsync_int, Vsync_ext) from the first display data stream (Disp_int) and the second display data stream (Disp_ext); determining by comparator means whether or not the offset (T_vals, 436) exceeds a maximum offset value (Max_val); and if the offset (T_vals, 436) does not exceed the maximum offset value (Max_val), switching by multiplexer logic from the first display data stream (Disp_int) to the second display data stream (Disp_ext) to drive the display; but if the offset (T_vals, 436) does exceed the maximum offset value (Max_val), adjusting by compute engine a horizontal blanking interval (418, 420) of said first display data stream (Disp_int). until the temporal offset (T_vals, 436) does not exceed the maximum offset value (Max_val) before switching by the multiplexer logic from the first display data stream (Disp_int) to the second display data stream (Disp_ext) to drive the display. receiving at receiver logic a first display data stream (Disp_int) from a frame buffer of a system to drive a display; receiving at the receiver logic (106 a second display data stream (Disp_ext) from a source external to said system; determining by measurement logic (202, 204) a temporal offset (T_vals, 436) between vertical sync signals (Vsync_int, Vsync_ext) from the first display data stream (Disp_int) and the second display data stream (Disp_ext); determining by comparator means whether or not the offset (T_vals, 436) exceeds a maximum offset value (Max_val); and if the offset (T_vals, 436) does not exceed the maximum offset value (Max_val), switching by multiplexer logic from the first display data stream (Disp_int) to the second display data stream (Disp_ext) to drive the display; but if the offset (T_vals, 436) does exceed the maximum offset value (Max_val), adjusting by compute engine a horizontal blanking interval (418, 420) of said first display data stream (Disp_int). until the temporal offset (T_vals, 436) does not exceed the maximum offset value (Max_val) before switching by the multiplexer logic from the first display data stream (Disp_int) to the second display data stream (Disp_ext) to drive the display.
A method for producing a partial section of a multi-part tower section of a tower, the method comprising: separating a shell of the multi-part tower section along a first portion of a desired longitudinal separation line of the shell; mounting a first longitudinal flange part of a longitudinal flange of a first partial section of the multi-part tower section to a shell segment of the shell associated with the first partial section along the first portion of the desired longitudinal separation line after separating the shell along the first portion of the desired longitudinal separation line; separating the shell along a second portion of the desired longitudinal separation line during or after mounting the first longitudinal flange part of the longitudinal flange of the first partial section; and mounting auxiliary bridge structures to an exterior of the shell prior to separating the shell along the first portion of the desired longitudinal separation line, each auxiliary bridge structure having a first mounting portion mounted to the shell segment of the first partial section and a second mounting portion mounted to a shell segment of the second partial section such that the auxiliary bridge structure bridges the desired longitudinal separation line. separating a shell of the multi-part tower section along a first portion of a desired longitudinal separation line of the shell; mounting a first longitudinal flange part of a longitudinal flange of a first partial section of the multi-part tower section to a shell segment of the shell associated with the first partial section along the first portion of the desired longitudinal separation line after separating the shell along the first portion of the desired longitudinal separation line; separating the shell along a second portion of the desired longitudinal separation line during or after mounting the first longitudinal flange part of the longitudinal flange of the first partial section; and mounting auxiliary bridge structures to an exterior of the shell prior to separating the shell along the first portion of the desired longitudinal separation line, each auxiliary bridge structure having a first mounting portion mounted to the shell segment of the first partial section and a second mounting portion mounted to a shell segment of the second partial section such that the auxiliary bridge structure bridges the desired longitudinal separation line.
A pulse wave detecting device (100; 100A; 100B) which is to be used while being attached to a wrist, the pulse wave detecting device (100; 100A; 100B) comprising: a housing which accommodates a pulse wave detection sensor for detecting a pulse wave from a radial artery of a subject, and which is configured to be able to be wound along a circumferential direction of the wrist; and a band for fixing the housing to the wrist, and which is lower in rigidity than the housing, wherein the housing includes: a back-side portion which, in an attachment state where the housing is attached to the wrist by the band, is to be wound around the arm at a back side of a hand, a palm side portion which is to be wound around the arm at a palm side of the hand, an arm side end portion being an end portion of the housing which, in the attachment state, is on a side of an arm of the subject in a perpendicular direction perpendicular to the circumferential direction, and a hand side end portion being an end portion of the housing which, in the attachment state, is on an arm at a side of the hand of the subject in the perpendicular direction, characterized in that in the attachment state, a position in the perpendicular direction of a part which is in the hand side end portion, and which constitutes the back-side portion, is closer to the arm of the subject than a position in the perpendicular direction of a part which is in a portion that constitutes the palm side portion, and which is closest to the side of the hand of the subject. a housing which accommodates a pulse wave detection sensor for detecting a pulse wave from a radial artery of a subject, and which is configured to be able to be wound along a circumferential direction of the wrist; and a band for fixing the housing to the wrist, and which is lower in rigidity than the housing, wherein the housing includes: a back-side portion which, in an attachment state where the housing is attached to the wrist by the band, is to be wound around the arm at a back side of a hand, a palm side portion which is to be wound around the arm at a palm side of the hand, an arm side end portion being an end portion of the housing which, in the attachment state, is on a side of an arm of the subject in a perpendicular direction perpendicular to the circumferential direction, and a hand side end portion being an end portion of the housing which, in the attachment state, is on an arm at a side of the hand of the subject in the perpendicular direction, characterized in that in the attachment state, a position in the perpendicular direction of a part which is in the hand side end portion, and which constitutes the back-side portion, is closer to the arm of the subject than a position in the perpendicular direction of a part which is in a portion that constitutes the palm side portion, and which is closest to the side of the hand of the subject.
A seal head including, at its leading end, a pressing end portion for pressing a lid member against an opening in order to fuse/bond the lid member to the opening of a container body holding contents therein; wherein at least a portion of the pressing end portion is formed as an uneven projecting portion having different curvature radii in its cross sectional contour between a radial inner portion and a radial outer portion of the opening; characterized in that the cross sectional contour of the uneven projecting portion has a shape having a smaller curvature radius on the radial inner side than the radial outer side.
A portable electronic device, comprising: a housing comprising a top portion including a display and a bottom portion including a window, the bottom portion is configured to mate with the top portion to form an internal cavity; an antenna disposed within the internal cavity and comprising an antenna element and a conductive antenna body coupled to a bottom surface of the antenna element, the antenna forming having an opening disposed at the center of the antenna and defined by an inner edge of the antenna; a wireless charging receiver system disposed within the internal cavity and the antenna opening, the wireless charging receiver system comprising a primary coil having an inner diameter and an outer diameter, a ferromagnetic shield covering a portion of at least two surfaces of the primary coil, and a secondary coil wound about overlapping portions of the primary coil and the ferromagnetic shield; and a sensor module disposed within the internal cavity and the inner diameter of the primary coil, the sensor module comprising at least one sensing device configured to measure a parameter of an environment external to the portable electronic device. a housing comprising a top portion including a display and a bottom portion including a window, the bottom portion is configured to mate with the top portion to form an internal cavity; an antenna disposed within the internal cavity and comprising an antenna element and a conductive antenna body coupled to a bottom surface of the antenna element, the antenna forming having an opening disposed at the center of the antenna and defined by an inner edge of the antenna; a wireless charging receiver system disposed within the internal cavity and the antenna opening, the wireless charging receiver system comprising a primary coil having an inner diameter and an outer diameter, a ferromagnetic shield covering a portion of at least two surfaces of the primary coil, and a secondary coil wound about overlapping portions of the primary coil and the ferromagnetic shield; and a sensor module disposed within the internal cavity and the inner diameter of the primary coil, the sensor module comprising at least one sensing device configured to measure a parameter of an environment external to the portable electronic device.
A vehicle control device which is configured to perform driving assistance to restrain an acceleration of a host vehicle for prompting an occupant of the host vehicle to do so by means of an adequate display and which is configured to provide information to the occupant of the host vehicle by storing a learning result of a traveling history of the host vehicle in a learning information storage section and by displaying a learning status based on learning information on a display section, the vehicle control device comprising: a traveling history learning section configured to store the learning information which includes information on deceleration in a to-be-learned zone based on the traveling history of the host vehicle in the learning information storage section in association with a position of the to-be-learned zone (Z, Z1 to Z4) and with a traveling direction of the host vehicle in the to-be-learned zone (Z, Z1 to Z4); a learning information obtaining section configured to obtain, from the learning information storage section, learning information corresponding to a position of the host vehicle; and a display control section configured to display, on the display section, a learning status display (41, 51 to 53, 55 to 57, 62 to 65) showing the learning status determined from the learning information based on the information on deceleration in the to-be-learned zone, the learning status showing a learning progress of the to-be-learned zone, corresponding to the traveling direction of the host vehicle. a traveling history learning section configured to store the learning information which includes information on deceleration in a to-be-learned zone based on the traveling history of the host vehicle in the learning information storage section in association with a position of the to-be-learned zone (Z, Z1 to Z4) and with a traveling direction of the host vehicle in the to-be-learned zone (Z, Z1 to Z4); a learning information obtaining section configured to obtain, from the learning information storage section, learning information corresponding to a position of the host vehicle; and a display control section configured to display, on the display section, a learning status display (41, 51 to 53, 55 to 57, 62 to 65) showing the learning status determined from the learning information based on the information on deceleration in the to-be-learned zone, the learning status showing a learning progress of the to-be-learned zone, corresponding to the traveling direction of the host vehicle.
A method for manufacturing a press formed product comprising: when a metal sheet is press formed to manufacture a product having a product shape of a cross-sectional shape in which both sides of a top plate part in a width direction are continuous with side wall parts and having a curved part curved in the width direction along a longitudinal direction, a first step of manufacturing an intermediate component by forming the curved part such that a line length along the longitudinal direction of a curved convex side that is a convex side of a curve is shorter than a line length in the product shape and a line length along the longitudinal direction of a curved concave side that is a concave side of the curve is longer than a line length in the product shape; and a second step of forming the intermediate component such that a line length of the curved convex side is longer than the line length in the first step and a line length of the curved concave side is shorter than the line length in the first step, characterized in that the line lengths are taken in the longitudinal direction along bent line positions between the top plate part and the side wall parts. when a metal sheet is press formed to manufacture a product having a product shape of a cross-sectional shape in which both sides of a top plate part in a width direction are continuous with side wall parts and having a curved part curved in the width direction along a longitudinal direction, a first step of manufacturing an intermediate component by forming the curved part such that a line length along the longitudinal direction of a curved convex side that is a convex side of a curve is shorter than a line length in the product shape and a line length along the longitudinal direction of a curved concave side that is a concave side of the curve is longer than a line length in the product shape; and a second step of forming the intermediate component such that a line length of the curved convex side is longer than the line length in the first step and a line length of the curved concave side is shorter than the line length in the first step, characterized in that the line lengths are taken in the longitudinal direction along bent line positions between the top plate part and the side wall parts.
A guide piece for an extraction or coal plough, comprising: a generally U-shaped guide piece body configured to be inserted into a guide claw of the plough along an insertion direction, the guide piece body including a first leg, a second leg and a plane connecting portion extending between the first leg and the second leg, characterized by a single first recess formed in the guide piece body to extend at an angle (α) with respect to the plane connecting portion from an outer side of the plane connecting portion to an outer side of one of the first leg and the second leg, the recess being configured for engagement with a locking mechanism to prevent movement of the guide piece at least in a direction opposite to the insertion direction after installation of the guide piece in the guide claw. a generally U-shaped guide piece body configured to be inserted into a guide claw of the plough along an insertion direction, the guide piece body including a first leg, a second leg and a plane connecting portion extending between the first leg and the second leg, characterized by a single first recess formed in the guide piece body to extend at an angle (α) with respect to the plane connecting portion from an outer side of the plane connecting portion to an outer side of one of the first leg and the second leg, the recess being configured for engagement with a locking mechanism to prevent movement of the guide piece at least in a direction opposite to the insertion direction after installation of the guide piece in the guide claw.
A method to handle interrupts within a multi-core processor having a plurality of processor cores, the method comprising: initializing a core interrupt mask to specify the plurality of processor cores as available processor cores; setting the core interrupt mask to specify one or more of the plurality of processor cores as unavailable processor cores based on one or more setting criteria; receiving an interrupt associated with an interrupt service routine; evaluating the core interrupt mask to identify one or more available processor cores from the plurality of processor cores; and assigning the interrupt service routine associated with the received interrupt to at least one of the one or more available processor cores; wherein the core interrupt mask specifies each of the plurality of processor cores as either an available processor core or an unavailable processor core; and wherein setting the core interrupt mask to specify one or more of the plurality of processor cores as unavailable processor cores based on one or more setting criteria comprises setting the core interrupt mask to specify one or more of the plurality of processor cores as unavailable processor cores if one or more respective caches associated with the one or more of the processor cores contain a significant amount of data, or if the one or more of the processor cores are positioned in physical proximity to one or more respective buses, or if the one or more of the plurality of processor cores cooperate with each other, or if the one or more of the plurality of processor cores begin executing a task. initializing a core interrupt mask to specify the plurality of processor cores as available processor cores; setting the core interrupt mask to specify one or more of the plurality of processor cores as unavailable processor cores based on one or more setting criteria; receiving an interrupt associated with an interrupt service routine; evaluating the core interrupt mask to identify one or more available processor cores from the plurality of processor cores; and assigning the interrupt service routine associated with the received interrupt to at least one of the one or more available processor cores; if one or more respective caches associated with the one or more of the processor cores contain a significant amount of data, or if the one or more of the processor cores are positioned in physical proximity to one or more respective buses, or if the one or more of the plurality of processor cores cooperate with each other, or if the one or more of the plurality of processor cores begin executing a task.
A method for manufacturing multilayered molded parts, in particular interior trim components for vehicles, in which a plastic is injected into the reverse side of a leather material, wherein the method comprises the following steps: - providing a flat non-dressed leather material; - placing the provided non-dressed leather material into an injection molding tool such that the reverse side of the leather material is aligned toward an injection chamber of the injection molding tool, wherein a molten plastic material is subsequently introduced into the injection chamber of the injection molding tool under pressure and a multilayered molded part thus formed; and - removing the formed multilayered molded part of plastic and leather material from the injection molding tool, wherein an embossing is introduced into or onto the leather material while the molten plastic material is being introduced, wherein the leather material provided in the first step of the method is a leather product which, although tanned, has not yet been stretched or coated. - providing a flat non-dressed leather material; - placing the provided non-dressed leather material into an injection molding tool such that the reverse side of the leather material is aligned toward an injection chamber of the injection molding tool, wherein a molten plastic material is subsequently introduced into the injection chamber of the injection molding tool under pressure and a multilayered molded part thus formed; and - removing the formed multilayered molded part of plastic and leather material from the injection molding tool,