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    • 1. 发明申请
    • PARAMETRIC GEOMETRY MODEL FOR A BLENDED WING BODY
    • 用于混合身体的参数几何模型
    • US20090152392A1
    • 2009-06-18
    • US11958143
    • 2007-12-17
    • Thomas A. HoganChristopher K. DroneyDino Roman
    • Thomas A. HoganChristopher K. DroneyDino Roman
    • B64C1/00
    • B64C39/10B64C2039/105B64F5/00G06F17/5095
    • Lofting of a Blended Wing Body air vehicle is accomplished by first determining the required payload volume of the air vehicle. The payload volume is then analyzed to determine a list of corner points of the payload volume. The list of points is passed to a Loft Module as keep-out points and a body portion of the blended wing body is established using a faceted minimum volume which encloses all of the provided keep-out points. A trapezoidal wing shape and size is then determined to accommodate aerodynamic performance requirements. A leading edge of the body portion and trapezoidal wing leading edge are trimmed and a trailing edge of the body portion and trapezoidal wing trailing edge are blended. A leading edge elevation is established and with leading edge radius as an input all other point coordinates and all tangents and remaining curvatures to smoothly enclose the payload volume in a first set of aerodynamic sections are defined. The aerodynamic requirements of the trapezoidal wing including Wing Thickness, Camber, Twist and Shear establish a second set of aerodynamic sections and sections in a transition region between the body portion and the trapezoidal wing are then defined. The blended wing body is then lofted based on the first plurality of sections, second plurality of sections and transition sections.
    • 混合翼的车身通过首先确定空中车辆的所需有效载荷体积来实现车身空中车辆。 然后分析有效载荷体积以确定有效载荷体积的角点列表。 点数列表作为保留点传递给阁楼模块,并且使用包围所有提供的保留点的面最小体积来建立混合翼体的身体部分。 然后确定梯形翼形和尺寸以适应空气动力学性能要求。 主体部分和梯形翼前缘的前缘被修剪,并且主体部分的后缘和梯形翼后缘被混合。 确定了前缘高程,并以前缘半径作为输入,定义所有其他点坐标以及所有切线和剩余曲率以平滑地将有效负载体积包围在第一组空气动力学截面中。 然后定义梯形翼片的空气动力学要求,包括翼厚度,弯度,扭转和剪切,建立第二组空气动力学截面和在主体部分和梯形翼之间的过渡区域中的截面。 然后,混合翼体基于第一多个部分,第二多个部分和过渡部分而放置。
    • 3. 发明授权
    • Parametric geometry model for a blended wing body
    • 混合翼体的参数几何模型
    • US08019574B2
    • 2011-09-13
    • US11958143
    • 2007-12-17
    • Thomas Allen HoganChristopher K. DroneyDino Roman
    • Thomas Allen HoganChristopher K. DroneyDino Roman
    • G06F17/50
    • B64C39/10B64C2039/105B64F5/00G06F17/5095
    • A required payload volume of a Blended Wing Body air vehicle is determined and analyzed for a list of corner points that is passed to a Loft Module as keep-out points to be enclosed by a body portion established using a faceted minimum volume. Trapezoidal wing shape and size are determined, a leading edge of the body portion and trapezoidal wing leading edge are trimmed and a trailing edge of the body portion and trapezoidal wing trailing edge are blended. A leading edge elevation is established and with leading edge radius as an input smoothly encloses the payload volume in a first set of defined aerodynamic sections. A second set of aerodynamic sections and transition sections between the body portion and the trapezoidal wing are defined. The blended wing body is then lofted based on the defined sections.
    • 确定并分析混合翼体机动车辆的所需有效载荷体积,以便将传递到阁楼模块的角点列表列为由使用小平面最小体积建立的身体部分所包围的保留点。 确定梯形翼形和尺寸,主体部分的前缘和梯形翼前缘被修整,并且主体部分的后缘和梯形翼后缘被混合。 建立了前沿高程,并且作为输入的前缘半径在第一组限定的空气动力学部分中平滑地包围有效载荷体积。 定义了主体部分和梯形翼之间的第二组空气动力部分和过渡部分。 然后将混合的翼体基于限定的部分放置。