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    • 81. 发明申请
    • ELECTRO-OPTIC SYSTEM FOR CROSSWIND MEASUREMENT
    • 电子测量系统
    • US20150176949A1
    • 2015-06-25
    • US14450076
    • 2014-08-01
    • Deepak Varshneya
    • Deepak VARSHNEYALarry JEFFERSSamuel LARSONStephen GRIGGS
    • F41G3/08F41G3/06
    • F41G3/08F41G3/06F41G3/165G01S17/95Y02A90/19
    • An electro-optic system, e.g., mounted to a weapon, measures down range winds and a range-to-target for compensating the ballistic hit point. The system may include an optical light source, collimated to generate a laser spot on the target. The system may include a wind measurement receiver that captures laser light scattered from the target. The captured light may be modulated by atmospheric scintillation eddies, producing optical patterns which change in time and move with the crosswind. These patterns may be analyzed by a processor using covariance techniques in either the time-domain or the frequency-domain to determine path-integrated crosswinds and associated errors. Ranging is done by measuring the time of flight of the laser pulse to the target collecting the scattered signal from the target. Compensated ballistic hit point, measurement errors and other data may be displayed on a micro-display digital eyepiece, or projected onto the direct view optics (DVO) of a riflescope so as to be overlaid in real-time on the optical image of the target.
    • 例如安装在武器上的电光系统测量向下范围的风和用于补偿弹道命中点的范围到目标。 系统可以包括准直的光学光源,以在目标上产生激光斑点。 该系统可以包括捕获从目标散射的激光的风测量接收器。 捕获的光可以被大气闪烁漩涡调制,产生随时间变化并与侧风一起移动的光学图案。 这些模式可以由处理器使用时域或频域中的协方差技术进行分析,以确定路径集成侧风和相关错误。 通过测量激光脉冲到目标的飞行时间来收集来自目标的散射信号来进行测距。 补偿弹道命中点,测量误差和其他数据可能显示在微显示数字目镜上,或投影到瞄准镜的直视光学器件(DVO)上,以便实时地重叠在目标的光学图像上 。
    • 82. 发明授权
    • Active stabilization targeting correction for handheld firearms
    • 手持式火器主动稳定瞄准矫正
    • US09033232B2
    • 2015-05-19
    • US13870174
    • 2013-04-25
    • Rocky Mountain Scientific Laboratory, LLC
    • Bryan Sterling Bockmon
    • G06F19/00G06G7/80F41G3/00F41G1/00F41A27/30F41G1/38F41G3/06F41G3/08F41G3/12
    • F41G1/00F41A27/30F41G1/38F41G3/00F41G3/005F41G3/06F41G3/08F41G3/12F41G3/165
    • An electromechanical system translates an “aiming error” signal from a target tracking system into dynamic “pointing corrections” for handheld devices to drastically reduce pointing errors due to man-machine wobble without specific direction by the user. The active stabilization targeting correction system works by separating the “support” features of the handheld device from the “projectile launching” features, and controlling their respective motion by electromechanical mechanisms. When a target is visually acquired, the angular deflection (both horizontal windage and vertical elevation) and aiming errors due to man-machine wobble (both vertical and horizontal) from the target's location to the current point-of-aim can be quickly measured by the ballistic computer located internal to a target tracking device. These values are transmitted to calibrated encoded electromechanical actuators that position the isolated components to rapidly correct angular deflection to match the previous aiming error.
    • 机电系统将来自目标跟踪系统的“瞄准误差”信号转换为手持设备的动态“指向校正”,从而大大减少由于人机摆动导致的指示误差,而无需用户的特定方向。 主动稳定瞄准校正系统通过将手持装置的“支撑”特征与“射弹发射”特征分离,并通过机电机构控制它们各自的运动来起作用。 当目标被视觉获取时,由于目标位置到目标瞄准点之间的人机摆动(垂直和水平)的角度偏转(水平向风和垂直仰角)和瞄准误差都可以通过 位于目标跟踪装置内部的弹道计算机。 这些值被传送到校准的编码的机电致动器,其将隔离的部件定位以快速校正角度偏转以匹配先前的瞄准误差。
    • 84. 发明授权
    • System and method for ballistic solutions
    • 弹道解决方案系统和方法
    • US09004358B2
    • 2015-04-14
    • US14082171
    • 2013-11-17
    • Laurence Andrew Bay
    • Laurence Andrew Bay
    • G06F19/00F41G3/06F41G3/08F41G3/10F41G11/00
    • F41G5/08F41G3/06F41G3/08F41G3/10F41G11/00
    • Disclosed embodiments, as well as features and aspects thereof, are directed towards providing a system, device and method for calculating comprehensive ballistic solutions, or portions thereof, via a varying magnification optical range determining and ballistic trajectory calculating apparatus referred to as a ballistic solutions device. Advantageously, embodiments of a ballistic solutions device may drastically reduce marksman error in milling targets by employing a measurement component configured to measure angular movement of a projectile launching device, such as a rifle, thus delivering consistently accurate distance to target estimations. Additionally, embodiments of a ballistic solutions device may also comprise features and aspects that enable a user to leverage available real-time field data such that error associated with the measurement of those variables is minimized prior to calculating and rendering a comprehensive ballistic solution derived from stored DOPE.
    • 公开的实施例及其特征和方面旨在提供一种用于通过变化的倍率光学范围确定和弹道轨迹计算装置(称为弹道解决方案装置)来计算综合弹道解决方案或其部分的系统,装置和方法 。 有利地,弹道解决方案装置的实施例可以通过采用被配置成测量诸如步枪的射弹发射装置的角运动的测量部件来大幅度地减少铣削目标中的射击者误差,从而提供与目标估计一致准确的距离。 另外,弹道解决方案装置的实施例还可以包括能够使用户利用可用的实时场数据的特征和方面,使得在计算和呈现从所存储的全部弹道解决方案导出的综合弹道解决方案之前将与这些变量的测量相关联的误差最小化 DOPE。
    • 86. 发明申请
    • BALLISTIC EFFECT COMPENSATING RETICLE AND AIM COMPENSATION METHOD WITH SLOPED MIL AND MOA WIND DOT LINES
    • 具有斜率MIL和MOA风向线的BALLISTIC效应补偿和目标补偿方法
    • US20140305025A1
    • 2014-10-16
    • US14157319
    • 2014-01-16
    • G. David TUBB
    • G. David TUBB
    • F41G3/08
    • F41G1/38F41G1/473
    • A dynamic ballistic effect compensating reticle and an aim compensation method for use in rifle sights or projectile weapon aiming systems includes a multiple point elevation and windage aim point field including a primary aiming mark indicating a primary aiming point adapted to be sighted-in at a first selected range (e.g., 200 yds) and a plurality sloped secondary aiming point arrays beneath the primary aiming mark. The method for compensating for a projectile's ballistic behavior while developing a field expedient firing solution permits the shooter to express the field expedient firing solution in units of distance, (e.g., yards or meters, when describing or estimating range and nominal air density ballistic characteristics), and angular offset of azimuth (e.g., MILS or MOA) for crosswind jump corrected windage hold points.
    • 用于步枪瞄准镜或射弹武器瞄准系统的动态弹道效应补偿掩模版和目标补偿方法包括多点高程和风挡瞄准点,其包括主要瞄准标记,其指示适于首先瞄准的主瞄准点 选定范围(例如,200码)和主要瞄准标记下方的多个倾斜次要瞄准点阵列。 在开发现场方便点火解决方案时,补偿射弹的弹道行为的方法允许射手以距离为单位(例如,码或米,在描述或估计范围和标称空气密度弹道特征时)表达现场方便点火解决方案, ,以及方向角的角度偏移(例如,MILS或MOA),用于侧风跳跃校正的阻风保持点。
    • 87. 发明申请
    • Cavity Axis Orientation Measurement Device
    • 腔轴定向测量装置
    • US20140203080A1
    • 2014-07-24
    • US13827230
    • 2013-03-14
    • Kenneth James Hintz
    • Kenneth James Hintz
    • G01B21/22F41G3/08
    • F41G3/08F41G3/147G01S13/347G01S13/88
    • An apparatus for measuring the orientation of the longitudinal axis of a cavity comprising a signal receiver, a signal processor and analyzer and a cavity axis orientation analyzer. The signal receiver receives a reflected signal resulting from an interaction of multi-frequency irradiating signal(s) with at least one cavity. The irradiating signal may include an electromagnetic or acoustic signal above a cavity dependent cutoff frequency with a randomized or deterministic spectral component. The signal analyzer computes a power spectral density of the reflected signal. The local maxima of the power spectral density are identified and used to determine the cavity longitudinal axis orientation. The cavity may be the bore of a weapon.
    • 一种用于测量腔的纵向轴线的取向的装置,包括信号接收器,信号处理器和分析器以及腔轴方向分析器。 信号接收器接收由多个频率照射信号与至少一个空腔的相互作用产生的反射信号。 照射信号可以包括具有随机或确定性光谱分量的空腔依赖截止频率之上的电磁或声信号。 信号分析仪计算反射信号的功率谱密度。 识别功率谱密度的局部最大值,并用于确定腔纵轴取向。 空腔可以是武器的孔。
    • 89. 发明授权
    • Fire guidance device for a hand fire weapon
    • 手火消防武器消防导弹装置
    • US08505434B2
    • 2013-08-13
    • US12838312
    • 2010-07-16
    • Gerhard Wieland
    • Gerhard Wieland
    • F41G3/08
    • F41G1/473F41G1/48F41G3/06F41G3/16
    • A fire guidance device for a hand fired weapon is suitable for day and night deployment for large caliber and slow flying ammunition or missiles, such as, for example, 40 mm grenade throwers and anti tank weapons. The fire guidance device also serves to determine and automatically adjust a set-up angle for adjustment of ballistics, and a lateral angle for spin correction. The fire guidance device is attached to the weapon so it can be tilted automatically or manually and twisting is thereby dependent upon a required set-up angle of the weapon so that direct view, by the operator, to the target is preserved. For spin correction, a defined angle in horizontal orientation is adjusted between axes of the fire guidance device and the weapon. Alternatively, the fire guidance device is mounted vertically and a required cant (tilt) is then indicated in a display, followed by tilt adjustment.
    • 用于手持式武器的消防导弹装置适用于大口径和慢速弹药或导弹的白天和黑夜部署,例如40毫米榴弹炮和反坦克武器。 消防引导装置还用于确定并自动调整用于调整弹道的设置角度和自旋校正的横向角度。 消防引导装置附接到武器,使其可以自动或手动地倾斜,从而扭转武器的所需设置角度,从而保持操作者直接观察目标。 对于旋转校正,水平方向的限定角度在火灾引导装置和武器的轴线之间进行调整。 或者,火灾引导装置垂直安装,然后在显示器中指示所需的倾斜(倾斜),然后进行倾斜调整。