mhurhangee/ep-ind-claims huggingface dataset:
An agricultural harvester, comprising: a chassis; and a threshing and separating section for threshing and separating grain from gathered crop material, the threshing and separating section being carried by the chassis, the threshing and separating section comprising: - at least one concave having a hooking feature; - at least one sliding support (76, 78); - a frame assembly for carrying and coupling the concave thereto, the frame assembly having a support bar allowing the hooking feature to hook over the support bar to support one side of the concave, the other side of the concave being coupled to the frame assembly, the sliding support (76, 78) supporting the concave as the concave is moved toward or away from the support bar; - at least one sliding support (76, 78) being affixed to the frame assembly for supporting a bottom of the concave as the concave is being inserted into the frame assembly and allowing the concave to slide and be pivoted on the sliding support (76, 78), thereby allowing the hooking feature to engage the support bar; and and being characterized in that the frame assembly further includes a slotted support member to which the other side of the concave is loosely coupled. a chassis; and a threshing and separating section for threshing and separating grain from gathered crop material, the threshing and separating section being carried by the chassis, the threshing and separating section comprising: - at least one concave having a hooking feature; - at least one sliding support (76, 78); - a frame assembly for carrying and coupling the concave thereto, the frame assembly having a support bar allowing the hooking feature to hook over the support bar to support one side of the concave, the other side of the concave being coupled to the frame assembly, the sliding support (76, 78) supporting the concave as the concave is moved toward or away from the support bar; - at least one sliding support (76, 78) being affixed to the frame assembly for supporting a bottom of the concave as the concave is being inserted into the frame assembly and allowing the concave to slide and be pivoted on the sliding support (76, 78), thereby allowing the hooking feature to engage the support bar; and and being characterized in that the frame assembly further includes a slotted support member to which the other side of the concave is loosely coupled. - at least one concave having a hooking feature; - at least one sliding support (76, 78); - a frame assembly for carrying and coupling the concave thereto, the frame assembly having a support bar allowing the hooking feature to hook over the support bar to support one side of the concave, the other side of the concave being coupled to the frame assembly, the sliding support (76, 78) supporting the concave as the concave is moved toward or away from the support bar; - at least one sliding support (76, 78) being affixed to the frame assembly for supporting a bottom of the concave as the concave is being inserted into the frame assembly and allowing the concave to slide and be pivoted on the sliding support (76, 78), thereby allowing the hooking feature to engage the support bar; and
A system for controlling a satellite link, wherein said satellite link includes a first link from hub to a satellite and a second link from said satellite to a receiving station, said system comprising: a reference unit at said receiving station, configured for obtaining measurements of at least signal attenuation over said satellite link; an output unit at said receiving station, configured for feeding back said measurements to said hub, and a control unit at said hub, configured for controlling at least one link transmission parameter associated with said first link and at least one transmission parameter associated with said second link to dynamically adapt to changes in said obtained signal attenuation, characterized by: wherein said control unit is further configured for discriminating between first link attenuation and said second link attenuation using a set of said measurements, and for performing an update cycle comprising: updating uplink gain control for said first link in accordance with said first link attenuation; correcting said set of said measurements in accordance with an increment in said updated uplink gain control; and selecting a modulation and coding,MODCOD, for said second link in accordance with said corrected set of measurements. a reference unit at said receiving station, configured for obtaining measurements of at least signal attenuation over said satellite link; an output unit at said receiving station, configured for feeding back said measurements to said hub, and a control unit at said hub, configured for controlling at least one link transmission parameter associated with said first link and at least one transmission parameter associated with said second link to dynamically adapt to changes in said obtained signal attenuation, characterized by: wherein said control unit is further configured for discriminating between first link attenuation and said second link attenuation using a set of said measurements, and for performing an update cycle comprising: updating uplink gain control for said first link in accordance with said first link attenuation; correcting said set of said measurements in accordance with an increment in said updated uplink gain control; and selecting a modulation and coding,MODCOD, for said second link in accordance with said corrected set of measurements. updating uplink gain control for said first link in accordance with said first link attenuation; correcting said set of said measurements in accordance with an increment in said updated uplink gain control; and selecting a modulation and coding,MODCOD, for said second link in accordance with said corrected set of measurements.
A mobile device comprising: a touch screen; and at least one processor configured to: provide a first window on the touch screen, the mobile device being characterised in that the mobile device is configured to: provide a second window displaying a moving image overlapping the first window, detect a user input while the second window overlaps the first window, and if it is determined that the second window overlaps with a keyboard when the keyboard is displayed on the touch screen in response to the detection of the user input, control to move the second window (350, 360) on the touch screen and display the keyboard while displaying the moving image in the moved second window, wherein the first window includes a text input area displayed on the touch screen, wherein the moved second window is free from overlapping the displayed keyboard and the text input area. a touch screen; and at least one processor configured to: provide a first window on the touch screen, the mobile device being characterised in that the mobile device is configured to: provide a second window displaying a moving image overlapping the first window, detect a user input while the second window overlaps the first window, and if it is determined that the second window overlaps with a keyboard when the keyboard is displayed on the touch screen in response to the detection of the user input, control to move the second window (350, 360) on the touch screen and display the keyboard while displaying the moving image in the moved second window, wherein the first window includes a text input area displayed on the touch screen, wherein the moved second window is free from overlapping the displayed keyboard and the text input area. provide a second window displaying a moving image overlapping the first window, detect a user input while the second window overlaps the first window, and if it is determined that the second window overlaps with a keyboard when the keyboard is displayed on the touch screen in response to the detection of the user input, control to move the second window (350, 360) on the touch screen and display the keyboard while displaying the moving image in the moved second window, wherein the first window includes a text input area displayed on the touch screen, wherein the moved second window is free from overlapping the displayed keyboard and the text input area.
A method for performing depth adjustment of a Computer Generated stereoscopic scene, the method comprising: receiving a CG model of a stereoscopic scene having model points; and determining repositioning for the model points in a left image and a right image from input variables comprising an input disparity parameter pair and a scene depth parameter pair; wherein the input disparity parameter pair comprises D max and D min, wherein D max is the maximum disparity limit for parallel eyes, and D min is the maximum disparity limit for crossed eyes, wherein the scene depth parameter pair comprises Z max and Z min, wherein Z max is a depth of a furthest object in the CG stereoscopic scene, and Z min is a depth of a closest object in the CG stereoscopic scene; wherein determining repositioning for model points comprises using a point reposition depth mapping function comprising: Zʹ Z = α ⋅ ln ⁢ Z + B + B ⋅ β 1 - α ⋅ ln ⁢ Z + β - B, wherein β = D max - D min ⋅ Z min ⋅ Z max E ⋅ Z max - Z min - D max ⋅ Z max + D min ⋅ Z min, wherein α = β ⋅ Z min - Z max ln ⁢ Z min + β Z max + β ⋅ Z min + β ⋅ Z max + β, wherein B = Z min Z min + β - α ⋅ ln ⁢ Z min + β, wherein Z is a depth of an intial model point location from a left-eye or a right-eye observation point, and wherein E is eye separation. receiving a CG model of a stereoscopic scene having model points; and determining repositioning for the model points in a left image and a right image from input variables comprising an input disparity parameter pair and a scene depth parameter pair; wherein the input disparity parameter pair comprises D max and D min, wherein D max is the maximum disparity limit for parallel eyes, and D min is the maximum disparity limit for crossed eyes, wherein the scene depth parameter pair comprises Z max and Z min, wherein Z max is a depth of a furthest object in the CG stereoscopic scene, and Z min is a depth of a closest object in the CG stereoscopic scene; wherein determining repositioning for model points comprises using a point reposition depth mapping function comprising: Zʹ Z = α ⋅ ln ⁢ Z + B + B ⋅ β 1 - α ⋅ ln ⁢ Z + β - B, wherein β = D max - D min ⋅ Z min ⋅ Z max E ⋅ Z max - Z min - D max ⋅ Z max + D min ⋅ Z min, wherein α = β ⋅ Z min - Z max ln ⁢ Z min + β Z max + β ⋅ Z min + β ⋅ Z max + β, wherein B = Z min Z min + β - α ⋅ ln ⁢ Z min + β, wherein Z is a depth of an intial model point location from a left-eye or a right-eye observation point, and wherein E is eye separation.
A water outlet valve structure, comprising: a control structure, open or close of the water outlet valve structure being controlled by the control structure; a flow channel comprising an inlet and an outlet, the control structure being capable of sealing or opening the outlet of the flow channel; a housing and a valve core assembly, wherein the flow channel is located in the housing, the valve core assembly is capable of moving between an open position and a closed position to open or close the flow channel, the control structure is capable of controlling the valve core assembly through controlling the valve core assembly to move from the closed position to the open position; and the control structure comprises a floating portion; the floating portion is capable of rising or descending with a liquid level; characterized in that the control structure is capable of controlling the valve core assembly in a non-contact manner, and in that the water outlet valve structure further comprises a water outflow structure disposed at the outlet of the flow channel, wherein the water outflow structure has a sealing portion; the sealing portion has a water outlet; the sealing portion is capable of abutting against the control structure, thereby having the water outlet sealed by the control structure; when the liquid level rises to a seal location, the floating portion is in contact with the sealing portion, thereby sealing the outlet of the flow channel; and when the liquid level descends, the floating portion descends, and the outlet of the flow channel is open. a control structure, open or close of the water outlet valve structure being controlled by the control structure; a flow channel comprising an inlet and an outlet, the control structure being capable of sealing or opening the outlet of the flow channel; a housing and a valve core assembly, wherein the flow channel is located in the housing, the valve core assembly is capable of moving between an open position and a closed position to open or close the flow channel, the control structure is capable of controlling the valve core assembly through controlling the valve core assembly to move from the closed position to the open position; and the control structure comprises a floating portion; the floating portion is capable of rising or descending with a liquid level; characterized in that the control structure is capable of controlling the valve core assembly in a non-contact manner, and in that the water outlet valve structure further comprises a water outflow structure disposed at the outlet of the flow channel, wherein the water outflow structure has a sealing portion; the sealing portion has a water outlet; the sealing portion is capable of abutting against the control structure, thereby having the water outlet sealed by the control structure; when the liquid level rises to a seal location, the floating portion is in contact with the sealing portion, thereby sealing the outlet of the flow channel; and when the liquid level descends, the floating portion descends, and the outlet of the flow channel is open.
A method performed by an access device of a long term evolution LTE system, the method comprising: specifying, relative to a single carrier PDCCH region, a first carrier's search space consisting of a first grouping of physical downlink control channel PDCCH candidates as a first CCE set (146, 148, 150, 152) and a second carrier's search space consisting of a second grouping of PDCCH candidates as a second CCE set (154, 156, 158, 160); transmitting an indication of a first carrier index for the first carrier and a second carrier index for the second carrier so as to indicate which carriers correspond to which CCE set; and transmitting a resource grant for at least one of the first and second carrier to a user equipment UE based on at least one PDCCH candidate of the first or second groupings. specifying, relative to a single carrier PDCCH region, a first carrier's search space consisting of a first grouping of physical downlink control channel PDCCH candidates as a first CCE set (146, 148, 150, 152) and a second carrier's search space consisting of a second grouping of PDCCH candidates as a second CCE set (154, 156, 158, 160); transmitting an indication of a first carrier index for the first carrier and a second carrier index for the second carrier so as to indicate which carriers correspond to which CCE set; and transmitting a resource grant for at least one of the first and second carrier to a user equipment UE based on at least one PDCCH candidate of the first or second groupings.
A system for occluding a blood vessel, the system comprising: a first coil having an elongate shape and defining a plurality of loops and a lumen, wherein the coil has a first configuration that is generally straight; and a plurality of fibers coupled to the first coil and extending outwardly therefrom; characterized by a plurality of barbs coupled to the plurality of fibers, wherein the barbs limit the fibers from being pulled out of the coil. a first coil having an elongate shape and defining a plurality of loops and a lumen, wherein the coil has a first configuration that is generally straight; and a plurality of fibers coupled to the first coil and extending outwardly therefrom; characterized by a plurality of barbs coupled to the plurality of fibers, wherein the barbs limit the fibers from being pulled out of the coil.
A method for virtual reality, VR, or augmented reality, AR, comprising: sensing a relative angle between a reference direction defined by a first tracking device and a navigate direction defined by a second tracking device; calculating a viewing angle according to the relative angle between the reference direction and the navigate direction; displaying a VR or AR environment in the calculated viewing angle; and the first tracking device is located on a necklace to be worn by a user, and the reference direction is an anterior direction of the body of the user; wherein the navigate direction is a direction the head of the user is facing; characterized in that the second tracking device is located on a jaw strap of a VR helmet to be worn by the user; and wherein sensing the relative angle comprises: transmitting ultrasonic signals from a first ultrasonic locator located on the first tracking device to a second ultrasonic locator located on the second tracking device; and calculating the relative angle based on amplitude change of the ultrasonic signals received by the second ultrasonic locator. sensing a relative angle between a reference direction defined by a first tracking device and a navigate direction defined by a second tracking device; calculating a viewing angle according to the relative angle between the reference direction and the navigate direction; displaying a VR or AR environment in the calculated viewing angle; and the first tracking device is located on a necklace to be worn by a user, and the reference direction is an anterior direction of the body of the user; wherein the navigate direction is a direction the head of the user is facing; characterized in that the second tracking device is located on a jaw strap of a VR helmet to be worn by the user; and wherein sensing the relative angle comprises: transmitting ultrasonic signals from a first ultrasonic locator located on the first tracking device to a second ultrasonic locator located on the second tracking device; and calculating the relative angle based on amplitude change of the ultrasonic signals received by the second ultrasonic locator. transmitting ultrasonic signals from a first ultrasonic locator located on the first tracking device to a second ultrasonic locator located on the second tracking device; and calculating the relative angle based on amplitude change of the ultrasonic signals received by the second ultrasonic locator.
An implant for fixation of first and second bones (12, 14) at a first site, the implant comprising: a body having a central axis and a depth dimension between first and second axially spaced ends (42, 44), the body having an outer surface at least nominally matched to a tapered surface around a receptacle formed at the first site by rotating a cutting element around a second axis, the body outer surface and tapered surface configured so that as the body is advanced along the central axis into an operative position within the receptacle, the body outer surface and tapered surface cooperate to cause the central and second axes to consistently substantially align, a plurality of openings (70, 72) in the body each to accept a threaded fastener (66, 68), the plurality of openings (70, 72) comprising: a) a first opening through which a first threaded fastener can be directed along a first line through the operatively positioned body and into one of the first and second bones (12, 14); and b) a second opening through which a second threaded fastener can be directed along a second line through the operatively positioned body and into one of the first and second bones (12, 14), wherein the first opening is formed so that the first threaded fastener can be advanced into one of the first and second bones (12, 14) in a line substantially parallel to the central axis of the body by screwing the first threaded fastener into the bone (12, 14), and further comprising the first threaded fastener adapted to be received in the first opening. a body having a central axis and a depth dimension between first and second axially spaced ends (42, 44), the body having an outer surface at least nominally matched to a tapered surface around a receptacle formed at the first site by rotating a cutting element around a second axis, the body outer surface and tapered surface configured so that as the body is advanced along the central axis into an operative position within the receptacle, the body outer surface and tapered surface cooperate to cause the central and second axes to consistently substantially align, a plurality of openings (70, 72) in the body each to accept a threaded fastener (66, 68), the plurality of openings (70, 72) comprising: a) a first opening through which a first threaded fastener can be directed along a first line through the operatively positioned body and into one of the first and second bones (12, 14); and b) a second opening through which a second threaded fastener can be directed along a second line through the operatively positioned body and into one of the first and second bones (12, 14), wherein the first opening is formed so that the first threaded fastener can be advanced into one of the first and second bones (12, 14) in a line substantially parallel to the central axis of the body by screwing the first threaded fastener into the bone (12, 14), and further comprising the first threaded fastener adapted to be received in the first opening.
A lever-type connector, comprising: a lever which is formed with at least one extending cam groove; a first connector housing on or in which the lever is displaceably supported; and a second connector housing which is connectable to the first connector housing and from which at least one cam pin (43; 43A; 43B; 43C; 43D; 43E; 43F) projects; the cam pin (43; 43A; 43B; 43C; 43D; 43E; 43F) being at least partly inserted into the cam groove and, in that state, the lever being displaced, whereby the cam pin (43; 43A; 43B; 43C; 43D; 43E; 43F) is configured to slide along a groove surface of the cam groove to effect cam action for connecting the first and second connector housings (20, 40), characterized in that the cam pin (43; 43A; 43B; 43C; 43D; 43E; 43F) comprises a pin main body (45; 45B; 45C; 45D; 45E; 45F) to be inserted into the cam groove, wherein said pin main body (45; 45B; 45C; 45D; 45E; 45F) is longer in a width direction than in a direction along a connecting direction of the first and second connector housings (20, 40), and wherein the width direction is perpendicular to the connecting direction, wherein at least one outer surface of the pin main body (45; 45B; 45C; 45D; 45E; 45F) at at least one end in the connecting direction is configured to slide in contact with the groove surface of the cam groove when the lever is being displaced. a lever which is formed with at least one extending cam groove; a first connector housing on or in which the lever is displaceably supported; and a second connector housing which is connectable to the first connector housing and from which at least one cam pin (43; 43A; 43B; 43C; 43D; 43E; 43F) projects; the cam pin (43; 43A; 43B; 43C; 43D; 43E; 43F) being at least partly inserted into the cam groove and, in that state, the lever being displaced, whereby the cam pin (43; 43A; 43B; 43C; 43D; 43E; 43F) is configured to slide along a groove surface of the cam groove to effect cam action for connecting the first and second connector housings (20, 40), characterized in that the cam pin (43; 43A; 43B; 43C; 43D; 43E; 43F) comprises a pin main body (45; 45B; 45C; 45D; 45E; 45F) to be inserted into the cam groove, wherein said pin main body (45; 45B; 45C; 45D; 45E; 45F) is longer in a width direction than in a direction along a connecting direction of the first and second connector housings (20, 40), and wherein the width direction is perpendicular to the connecting direction, wherein at least one outer surface of the pin main body (45; 45B; 45C; 45D; 45E; 45F) at at least one end in the connecting direction is configured to slide in contact with the groove surface of the cam groove when the lever is being displaced.