mhurhangee/ep-ind-claims huggingface dataset:
A method of determining a movement of a target region using tomosynthesis, comprising: accessing a first set of projection radiographs of the target region over a first processing window defined by a first range of projection angles; moving on to a second processing window; accessing a second set of projection radiographs of the target region over said second processing window defined by a second range of projection angles; and comparing a first positional information derived from the first set of the projection radiographs and a second positional information derived from the second set of the projection radiographs to determine the movement of the target region; wherein the first set of projection radiographs and the second set of projection radiographs are acquired by a first radiation source that aims towards the target region through to a first flat panel detector; characterised in that the first set of projection radiographs and the second set of projection radiographs are acquired by: rotating the first radiation source in a first plane, and rotating the first flat panel detector in a second plane which is in parallel to the first plane. accessing a first set of projection radiographs of the target region over a first processing window defined by a first range of projection angles; moving on to a second processing window; accessing a second set of projection radiographs of the target region over said second processing window defined by a second range of projection angles; and comparing a first positional information derived from the first set of the projection radiographs and a second positional information derived from the second set of the projection radiographs to determine the movement of the target region; wherein the first set of projection radiographs and the second set of projection radiographs are acquired by a first radiation source that aims towards the target region through to a first flat panel detector; characterised in that the first set of projection radiographs and the second set of projection radiographs are acquired by: rotating the first radiation source in a first plane, and rotating the first flat panel detector in a second plane which is in parallel to the first plane.
A method for producing an electrode for lithium ion secondary batteries, the method comprising: a step of forming a binder coat layer 16 through application of a binder liquid containing a binder and a solvent, onto an elongate collector 12, along a longitudinal direction of the collector 12, with the binder coat layer 16 being formed so as to have large coat amount regions 18A in which a coating amount of the binder liquid per unit surface area is large and a small coat amount region 18B in which a coating amount of the binder liquid per unit surface area is small, in a width direction of the collector 12 perpendicular to the longitudinal direction of the latter, wherein the coating amount A in the large coat amount regions 18A and the coating amount B in the small coat amount region 18B satisfy the relationship A≥1.25B, and the large coat amount regions 18A being provided at least at both side edge portions 16E of the binder coat layer 16 in the width direction; wherein the large coat amount regions 18A comprise strip-like coated sections along a plurality of imaginary lines L1 extending obliquely with respect to the width direction of the collector 12 at given spacings from each other along the plurality of lines L1, thus resembling dashed lines; a step of supplying granulated particles 32 containing active material particles 34 and a binder 36, onto the binder coat layer 16; and a step of forming an active material layer 14 through pressing of aggregates of the granulated particles having been supplied onto the binder coat layer 16. a step of forming a binder coat layer 16 through application of a binder liquid containing a binder and a solvent, onto an elongate collector 12, along a longitudinal direction of the collector 12, with the binder coat layer 16 being formed so as to have large coat amount regions 18A in which a coating amount of the binder liquid per unit surface area is large and a small coat amount region 18B in which a coating amount of the binder liquid per unit surface area is small, in a width direction of the collector 12 perpendicular to the longitudinal direction of the latter, wherein the coating amount A in the large coat amount regions 18A and the coating amount B in the small coat amount region 18B satisfy the relationship A≥1.25B, and the large coat amount regions 18A being provided at least at both side edge portions 16E of the binder coat layer 16 in the width direction; wherein the large coat amount regions 18A comprise strip-like coated sections along a plurality of imaginary lines L1 extending obliquely with respect to the width direction of the collector 12 at given spacings from each other along the plurality of lines L1, thus resembling dashed lines; a step of supplying granulated particles 32 containing active material particles 34 and a binder 36, onto the binder coat layer 16; and a step of forming an active material layer 14 through pressing of aggregates of the granulated particles having been supplied onto the binder coat layer 16.
Plug connector comprising a housing in which at least one contact element is arranged, and at least one cable gland, which can be fastened to the housing, for conducting a cable with which the at least one contact element in the housing can make contact, wherein an opening for conducting the cable and a receptacle for fastening the cable gland to the housing are formed on at least one side surface of the housing, wherein the cable gland can be fastened to the receptacle in a first position with a first cable output direction and at least in a second position with a second cable output direction, wherein the side surface of the housing, which side surface has the receptacle for the cable gland, is designed in a manner inclined at an angle (α) of between 30° and 50° in relation to a base surface of the housing, and wherein the cable gland has a support surface for support on the side surface of the housing, which side surface has the receptacle, in a fastened state, wherein the support surface is formed in a manner inclined at an angle (β) of between 40° and 60° in relation to a longitudinal direction of the cable gland, characterized in that, in order to form a bayonet fitting-like locking arrangement, the receptacle of the housing has at least two latching cams (13a, 13b, 13c, 13d) which are arranged on the side surface of the housing and/or the cable gland has at least two latching cams (13a, 13b, 13c, 13d) which are arranged on the support surface of the cable gland, which latching cams engage into cutouts (23a, 23b, 23c, 23d), which are arranged on the side surface of the housing and/or on the support surface of the cable gland, in the fastened state, wherein the latching cams (13a, 13b, 13c, 13d) have a slide-on surface (15a, 15b, 15c, 15d) which is formed with a gradient, wherein the slide-on surface (15a, 15b, 15c, 15d) is of bent design.
An article comprising: a structure including a ceramic material having a composition SiO x M z C y, where Si is silicon, O is oxygen, M is at least one metal and C is carbon and wherein x < 2, y > 0 and z < 1 and x and z are non-zero, wherein the structure is a substantially uniform thickness layer on a substrate selected from the group consisting of a superalloy material, a ceramic material, a glass or glass-ceramic, carbon or combinations thereof. a structure including a ceramic material having a composition SiO x M z C y, where Si is silicon, O is oxygen, M is at least one metal and C is carbon and wherein x < 2, y > 0 and z < 1 and x and z are non-zero, wherein the structure is a substantially uniform thickness layer on a substrate selected from the group consisting of a superalloy material, a ceramic material, a glass or glass-ceramic, carbon or combinations thereof.
A rotary assembly for a turbomachine having an axis and comprising: - a disk having an external periphery exhibiting an alternation of pockets and of teeth, which extend from upstream to downstream on the disk, - vanes extending radially from the disk, and the roots of which are engaged axially in the pockets and retained radially by the teeth of the disk, - arranged upstream and/or downstream from the disk, an annular flange sealing cavities formed radially between, respectively, the roots of the vanes and the bottoms of the pockets of the disk, with said flange comprising an internal part retained by the disk, and an external part arranged axially facing upstream and/or downstream ends, respectively, of the teeth of the disk and of the roots of the vanes, - an intermediate ring which is arranged axially between the flange and the teeth of the disk, and radially between the internal part and the external part of the disk, - a seal which is arranged axially between, on the one side, the intermediate ring and, on the other side, the teeth of the disk and the roots of the vanes, with the intermediate ring and the sealing flange being so configured as to provide, in rotation, the sealing between, on the one side, the sealing flange and, on the other side, the teeth of the disk and of the roots of the vanes characterized in that the sealing flange has an internal frustoconical surface inclined axially towards the disk and radially outwards, said internal frustoconical surface being arranged axially and radially facing the intermediate ring. - a disk having an external periphery exhibiting an alternation of pockets and of teeth, which extend from upstream to downstream on the disk, - vanes extending radially from the disk, and the roots of which are engaged axially in the pockets and retained radially by the teeth of the disk, - arranged upstream and/or downstream from the disk, an annular flange sealing cavities formed radially between, respectively, the roots of the vanes and the bottoms of the pockets of the disk, with said flange comprising an internal part retained by the disk, and an external part arranged axially facing upstream and/or downstream ends, respectively, of the teeth of the disk and of the roots of the vanes, - an intermediate ring which is arranged axially between the flange and the teeth of the disk, and radially between the internal part and the external part of the disk, - a seal which is arranged axially between, on the one side, the intermediate ring and, on the other side, the teeth of the disk and the roots of the vanes, with the intermediate ring and the sealing flange being so configured as to provide, in rotation, the sealing between, on the one side, the sealing flange and, on the other side, the teeth of the disk and of the roots of the vanes
A solid fuel burner configured to be provided in a throat of a wall surface of a furnace, comprising: a fuel nozzle which includes a straight tube section provided around a burner central axis and having a circular cross section and an opening toward the furnace, and a curved tube section continued to the straight tube section, wherein the fuel nozzle is configured such that a mixed fluid of a solid fuel and a carrier gas thereof supplied to the curved tube section is sprayed from the opening of the straight tube section to the furnace at an outlet of the fuel nozzle; a first swirler which is provided in the straight tube section, and includes a plurality of vanes installed in the circumferential direction to apply a swirl to the mixed fluid; and a second swirler which is provided downstream in a flow direction of the mixed fluid of the first swirler in the straight tube section, includes a plurality of vanes disposed in the circumferential direction, and is installed in a direction reverse to a direction in which the vanes of the first swirler are installed, wherein the first swirler and the second swirler are provided away from an inner wall of the fuel nozzle, and wherein the second swirler is slightly separated from the outlet of the fuel nozzle so that a strong swirl component remaining at the burner outlet does not remain. a fuel nozzle which includes a straight tube section provided around a burner central axis and having a circular cross section and an opening toward the furnace, and a curved tube section continued to the straight tube section, wherein the fuel nozzle is configured such that a mixed fluid of a solid fuel and a carrier gas thereof supplied to the curved tube section is sprayed from the opening of the straight tube section to the furnace at an outlet of the fuel nozzle; a first swirler which is provided in the straight tube section, and includes a plurality of vanes installed in the circumferential direction to apply a swirl to the mixed fluid; and a second swirler which is provided downstream in a flow direction of the mixed fluid of the first swirler in the straight tube section, includes a plurality of vanes disposed in the circumferential direction, and is installed in a direction reverse to a direction in which the vanes of the first swirler are installed, wherein the first swirler and the second swirler are provided away from an inner wall of the fuel nozzle, and wherein the second swirler is slightly separated from the outlet of the fuel nozzle so that a strong swirl component remaining at the burner outlet does not remain.
A power supply system comprising: a first inverter; a first motor-generator driven by the first inverter; a second inverter; a second motor-generator driven by the second inverter; a pair of output terminals including a first terminal connected to a neutral point of stator coils of the first motor-generator, and a second terminal connected to a neutral point of stator coils of the second motor-generator; a voltage detector that detects a voltage generated from the pair of output terminals; a first controller ( 1MG_ECU410) configured to control the first inverter; and a second controller ( 2MG_ECU420) configured to control the second inverter, characterized in that the first controller ( 1MG_ECU410) is configured to control the first inverter according to a target value of the voltage of electric power when it is supplied to an external load and which is generated from the output terminals, irrespective of a magnitude of a deviation between the target value of the voltage generated from the output terminals, and the voltage detected by the voltage detector; and the second controller ( 2MG_ECU420) is configured to control the second inverter according to the deviation between the target value of the voltage generated from the output terminals, and the voltage detected by the voltage detector. a first inverter; a first motor-generator driven by the first inverter; a second inverter; a second motor-generator driven by the second inverter; a pair of output terminals including a first terminal connected to a neutral point of stator coils of the first motor-generator, and a second terminal connected to a neutral point of stator coils of the second motor-generator; a voltage detector that detects a voltage generated from the pair of output terminals; a first controller ( 1MG_ECU410) configured to control the first inverter; and a second controller ( 2MG_ECU420) configured to control the second inverter, characterized in that the first controller ( 1MG_ECU410) is configured to control the first inverter according to a target value of the voltage of electric power when it is supplied to an external load and which is generated from the output terminals, irrespective of a magnitude of a deviation between the target value of the voltage generated from the output terminals, and the voltage detected by the voltage detector; and the second controller ( 2MG_ECU420) is configured to control the second inverter according to the deviation between the target value of the voltage generated from the output terminals, and the voltage detected by the voltage detector.
A windscreen wiper device comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes at least one groove, in which groove a longitudinal strip of the carrier element is disposed, wherein ends of said longitudinal strip are connected by a respective connecting piece, which windscreen wiper device comprises a connecting device for an oscillating arm, wherein said oscillating arm can be pivotally connected to said connecting device about a pivot axis near one end, wherein said connecting device comprises at least two parts (8, 9) provided with protrusion/hole means arranged for detachably connecting said parts (8, 9) together through a snapping operation, wherein the first part is retained onto the wiper blade and wherein the second part comprises a channel arranged for inserting said oscillating arm therein, wherein said windscreen wiper device is provided with retaining means arranged for retaining said connecting device onto said oscillating arm, wherein said retaining means comprises at least one downwardly extending protrusion on the second part, wherein said protrusion is movable between an inward position, wherein in mounted position said protrusion engages into a correspondingly shaped hole provided in said oscillating arm and said connecting device is retained onto said oscillating arm, and an outward position, wherein in dismounted position said protrusion disengages from said hole provided in said oscillating arm and said connecting device is released from said oscillating arm, characterized in that a part of a top wall of said second part comprises at a bottom side thereof said downwardly extending protrusion, and at a top side thereof a push button, and wherein said part is allowed to hinge about a hinge axis upon activating or deactivating said push button.
A bone screw comprising: a shaft having a wall, the wall including a minor diameter and at least one thread having an external thread form, the thread form including a first portion comprising a crest of the thread form and a second portion extending between the minor diameter of the thread form and the first portion, and the first portion including a density that is greater than a density of the second portion, wherein the shaft includes a proximal portion, a distal portion including the first and second portions (82, 80) and a distal tip, the distal portion is fabricated from an additive manufacturing method including heating a material in a layer by layer formation, and the proximal portion is fabricated by a traditional machining method including subtractive, deformative or transformative manufacturing methods. a shaft having a wall, the wall including a minor diameter and at least one thread having an external thread form, the thread form including a first portion comprising a crest of the thread form and a second portion extending between the minor diameter of the thread form and the first portion, and the first portion including a density that is greater than a density of the second portion, wherein the shaft includes a proximal portion, a distal portion including the first and second portions (82, 80) and a distal tip, the distal portion is fabricated from an additive manufacturing method including heating a material in a layer by layer formation, and the proximal portion is fabricated by a traditional machining method including subtractive, deformative or transformative manufacturing methods.
A sound capture device comprising a first set of four or more directional microphone capsules (61,71) disposed around a point of symmetry in a non-coplanar spatial arrangement, each directional capsule having an axis along which it exhibits maximum sensitivity, wherein the axes of the capsules in the first set do not all pass through the point of symmetry and wherein the directions of the axes of the capsules in the first set are not all coplanar, wherein said axes of maximum sensitivity do not all intersect at a common point, wherein each capsule in the first set is located on a different respective edge of a reference polyhedron, and wherein each capsule in the first set is orientated such that the angle between the respective edge of the polyhedron and a projection of the direction of maximum sensitivity of the capsule onto a plane perpendicular to a line joining the point of symmetry to the capsule is the same for all capsules in the first set.
A variable area fan nozzle (VAFN), comprising: a body extending at least partially around an axis, the body including a radially outer wall and a radially inner wall relative to the axis, wherein the VAFN is a hollow structure and includes supports extending between the radially inner wall and the radially outer wall; and characterised by at least one of the radially outer wall and the radially inner wall including a wall thickness distribution having local thick portions (84, 86) and local thin portions (88, 90) that are configured to control the flutter characteristic of the VAFN. a body extending at least partially around an axis, the body including a radially outer wall and a radially inner wall relative to the axis, wherein the VAFN is a hollow structure and includes supports extending between the radially inner wall and the radially outer wall; and characterised by at least one of the radially outer wall and the radially inner wall including a wall thickness distribution having local thick portions (84, 86) and local thin portions (88, 90) that are configured to control the flutter characteristic of the VAFN.
A load detection device mounting structure, a film shaped load detection device of which comprises a plurality of detecting portions (A through D) to be brought into contact with a seating-side outer surface of a pad member of a vehicle to detect a load applied to the pad member, an external output portion for outputting a load signal detected by the detecting portions (A through D) and conducting portions (24, 26, 28, 30, 48) for conducting between two of the plurality of detecting portions (A through D) and between the detecting portions (A through D) and the external output portion, wherein the film shaped load detection device is mounted to the vehicle seat by inserting a bent portion (28a, 48a) formed by bending at least a portion of the conducting portion (28, 48) into the recessed groove between a seating-side outer surface of the pad member having a recessed groove formed by depression therein and a surface skin member mounted on the pad member to cover the seating-side outer surface in a manner of crossing over the recessed groove, sliding portions are provided at a pair of oppositely facing inner side surfaces of the groove, with which back surface of the bent portion (28a, 48a) is brought into contact, and a penetrating bore penetrating from the recessed groove through the back surface of the pad member is provided at the inserting portion of the pad member for inserting the bent portion (28a, 48a) and the bent portion (28a, 48a) is freely movable within the penetrating bore in an upper/lower direction by a sliding movement between the bent portion (28a, 48a) and the sliding portions when the pad member is compressed to deform downward by the seating load applied to the pad member, and the penetrating bore is formed to have a width wider than a gap between the oppositely facing sliding portions so that the back surface of the conducting portion (28, 48) of the film shaped load detection device may not be brought into contact with the penetrating bore (43, 51, 53, 54) when a tip end portion of the bent portion (28a, 48a) of the film shaped load detection device is inserted into the penetrating bore, further the penetrating bore being formed by inclined surfaces (51 a, 51 b) so that widths thereof gradually increase towards the back surface of the pad member.