TW468029B - Micro fire control method and system thereof for rifles - Google Patents

Micro fire control method and system thereof for rifles Download PDF

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Publication number
TW468029B
TW468029B TW89121768A TW89121768A TW468029B TW 468029 B TW468029 B TW 468029B TW 89121768 A TW89121768 A TW 89121768A TW 89121768 A TW89121768 A TW 89121768A TW 468029 B TW468029 B TW 468029B
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fire control
target
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TW89121768A
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Chinese (zh)
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Ching-Fang Lin
Hiram Mccall
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Ching-Fang Lin
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Abstract

A micro fire control method and system are disclosed for improving conventional rifles. Wherein, an inertially stabilized sight and barrel are implemented with measurements from MEMS angular rate sensors and accelerometers; rifle firing lead angle is computed by integrating information from a laser rangefinder, a MEMS inertial sensor assembly, and projectile ballistic characteristics.

Description

經濟部中央標率局员工消費合作社印装 468029 _;_____ B7 五、發明説明(1:) 目前蛆擊步搶是應用.樑準動能子彈.,輔以光學视線的: I規搶枝’有時配備激光測距器,例如第一圖所示之麥克 朱阑(McMillaiL)M-32聚.焦激光狙.擊步搶(Focused Laser .Sniper Rifle),該m—32步槍作為一種重型步兵狙聲步徐, 5為陸軍最優秀的蛆擊小紅而開發。它主要甩於在敵後區域 消滅其高價11.的武裝人員目標。為了完成這一任務,M_32 裝備了一佰激光測距器(其可用兩個”因近距離可見激 光工作)和一個第六代瑞斯(Zeiss)熱成像器(Thennai Imaging Sight)« 10 由於殺傷力的增強,使用者的運動,目標的運動,和 距離增加的要求’有必要應用創新技術,在許多領域內對 現有的狙撃步搶進行性能改進》用戶集成電路(AppHcationPrinted by the Consumer Standards Cooperative of the Central Bureau of Standards of the Ministry of Economic Affairs 468029 _; _____ B7 V. Description of the invention (1 :) At present, slam-kick stepping is applied. Liang Zhun kinetic energy bullets. Sometimes equipped with a laser rangefinder, such as the McMillaiL M-32, Focused Laser, Sniper Rifle shown in the first picture, the m-32 rifle is used as a heavy infantry Sneak step Xu, 5 was developed for the Army's best striker Xiaohong. It is mainly aimed at destroying its high-priced armed personnel target in the enemy area. In order to accomplish this task, the M_32 is equipped with a hundred laser rangefinders (which can work with two "close-range visible lasers") and a sixth-generation Zeiss Thermal Imager (Thennai Imaging Sight) «10 due to killing Increased force, user movement, target movement, and increased distance requirements. 'It is necessary to apply innovative technologies to improve the performance of existing snipers in many fields.' [AppHcation]

Specific Integrated Circuit,ASIC)和MEMS(Micro-Ele〇ro Mechanical-System)技術的迅速發展使提高現有的狙擊步搶 U 的性能成為可能。' 本發明之主要目的是提供一個微型火控方法和系統, 通過附加低成本,重量輕,體積小的硬件,和複雜的算法 和軟件的手段,使目標狙擊步搶在擊中概率,元件的微型 化’減輕重量,和增加有效射程方面取得實質性的性能改 2〇善’其中,使用從MEMS角速度傳感器和加速度計來的測 量1實現了一個慣性穩定的視線和搶管;通過综舍從激光 測距器和MEMS慣性傳感器組件來的信息和子彈彈道特 性,算出步槍的開火提前角。 本發明之另一目的是提供一個微型火控方法和系統, 本紙法尺度遑用中國國家揀率(CNS ) A4规格(210X297公釐) S3. 3.10,000 -----------I'r-- - - (誇先閲讀背面之注意事項再填寫本萸) 訂 M: _ A7 B7 4 6 8 0 2 9 五、發明説明(2) =統ΐί*創新的傳感器技衛饿式算接和% ^ 觸纖力輸,使^ 遇動目標的運動,和距離增加的要求。 甘古ίί贬又—目岐提供—織歡控方法和系統, 臟够軍事和餘聽,例如,.執法機棟_獵' 市場’和其他兩用目的。本發明的單個部件可用於小 裝置’例如照像機及移動通信等。 圖示說明: 請 先 閲. 10 15 第一圖 第二圖 第三圖 第四圖 第五圖 第万圖 第七圖 第八圖 第九圖 顯示現有的之麥克米蘭聚焦 激光狙擊步搶。 '、' ,顯示具有微型火控系統的狙擊步搶結構。, 顯示狙擊步搶微型火控方法方塊圖。 顯示狙擊步搶自動跟蹤目標步騍方塊圖。 示狙擊步搶電子激發步驟方塊圖。 顯示狙擊步搶的舉線率和擾動的去除實現方 法方塊圖。 顯示狙撃步搶的提前角計算方塊圖。 顯示狙擊步搶的激光測距器測量幾何。 顯示狙擊步搶的微型火控系統。 再 頁 訂 經濟部中央樣準局員工消費合作社印製 圖號說明: 1-角速度傳感器和加速度傳感器組件L光學視線 4- 俯仰和方位支架及伺服單元 3-激光測距器 5- 支架角傳感器 6-火控單元 視線率命令計算模塊 62-提前角計算模塊‘ ί張尺度逍用中國國家揉率(OIS ) A4規格(210X297公釐y 83.3.10,000 468029 經濟部中央樣準局員工消费合作社印製 五 、發明説明(3) 621-濾波器 623-相:對莲動過程模塊_ 7-電子板機 622-彈道計算模塊 63_平台控制算:法 8-電源 10 15 本發明係關於一種火控方法及系統*更確切地,但並. 不排他地講,係一種針對目標狙撃步搶的微型火控方法及 系統’其利用從MEMS角速度傳感器和加速計,視線.和激 光測距器來的信息,以及附加的慣性穩:定平合,以便當操 作者和目標都在運動時,在擊中概率,部件微型化,減輕 重量,以及增加有效距離方面取得實質性的改進。 從原理上講,另一個取得增加步搶的殺傷力,運動操 作者’運動目標’和擴展的距離要求的直接方法是發展一 種智能子彈,即一種“微型飛彈”。但在不久的將來還不 可能將整個導引,導航與控制系統(GN&C),以及發動機 植入如此小的子彈中。 隨著用戶集成電路(App丨ication Specific Integrated Circuit, ASIC)^pMEMS(Micro-Electro-Mechanical-System) 技術的迅速發展,有可能發展一種火控系統為使甩者提供 最优性能來控制歩搶',以提高擊中概率,提高射程,運動 目標能力’和運動使用者能力。所以,本發明為步搶提供 了一種低成本,重量輕,集成的微型火控系統,其综合了 來自激光測距器和MEMS慣性傳感器組件的信息以及子彈 彈道特性,並實現了一個慣性穩定的視線和搶管。 步搶的火控系統需要隔離使用者的運動,通過處理角 速度傳感器和加速度傳感器敏感到的信號,使搶管準確指 注 意 事 項 再 i %, 訂 • .1 本紙诛尺度逍角中因國家揉準(CNS ) A4規格(210X297公釐) 83.3‘ 10,000 五 、發明説明(4) 15 • A7 B7 經濟部中央搮準肩負工消費合作社印裝 向',子彈擊中目標。然而,不能使用常規的角速度傳感器 和加速度傳感器,由於它們的成本,·體積,重量,和功耗 對步槍和它的使用者來說太大了。 角速度傳感器和加速度傳感器技術的新前·景正在展… 技術使得有可能製造出興常規慣性器件相比’ 在成本,體積,和可靠性方面有巨大改進的角速度傳感器 和加速度傳感器。 MEMS的意思是微機電系統(Microelectromedianical System)或微小的電氣機械裝置。MEMS装置涉及到應用集 成電路(Integrated Circuit, 1C)技術產生可以控制的機械可運 動結構》MEMS包括微電子和微機械概念。MEMS裝置的 例子有噴墨打印機的打印頭’打開汽車安全氣袋的加速度 計,和微型機器人。 微電子技術在矽片上製作電子線路,是—種很成熟的 技術。眾所周知,三十年前,隨著第一塊集成電路的出 現,開始了矽革命。集成電路事實上改變了我們生活的各 個方面。過去三十多年來,集成電路工業的標结—直县 數增長著的一個矽片內所集成的晶體管數目^一個矽片内 ^體管數目迅速增長,導敦集成電路性能的連續不斷提 高。?著時間的推移,龐大,昂責,複軸紐已經被小 巧,高健’廉働集成電赌取代。軸縣子電路功 能的增長確實巨大,但大部分地,這— & 處理能力。 k辟局限於芯片的 MEMS被認為是料命合乎邏_下—疒相信這下 -6- 浪尺度適用令國國家揉率(》A4此格(210X297公嫠 (請先閲讀背面之注意事項再填寫本页) 46 8029 A7 經濟部中夬棲準局®c工消費合作社-s-製 五、發明説明(5) , —步將是不同:的,比簡單地集成更多晶.體管到矽片更為重 要。下一世紀三十年中,矽革命的標誌將是集成到芯片結 構中的新型功能。其將不僅使芯片思考,▼且敏感,行 …動,和逯信。;MEMS是組合電氣與機械部件的微器件與系 5統。它們甩集成電路(1C)批處理技術製作,其大小從微来~ 到毫米。材料沉積,犧牷氧化物,.和腐蝕工藝可用.來雕刻. 不大於一微来的運動部件。這些系統可在微觀上進行敏 感,控制和執行,單獨起作用或以陣列形式產生宏觀效 果。一些MEMS應用包括: 10 傳感器:慣性,壓力_ 光學開關:集成光學,微光學 生物醫學器件· 微流變學 海量數據存儲 15 微儀表 微機械 微泵 微機器人 MEMS是正在成長的工業,有—個計算估計其今天有 20 —百億美元的市場’ 2003年有三百四十億的市場。應用半 導體工業典型的批量巍造技術,可以同時製作成千相同的 傳感器,每個幾個平方毫米大小。 與常規慣性器件相比,MEMS慣性器件為導引,導 航’與控制系統在成本,體積,和可靠性方面提供了巨大 本紙ft尺度逋用中國®家揉牟(CMS ) Μ说格(210X2?7公釐) 83.3*10,000' I.J ^ 0袭-- (請先聞讀背面之注意事項再填寫本頁) 訂 1::β 4,6 8029 經濟部令夬樣準局貝工消費合作杜印製 A7 B7 五、發明説明(β ) 的改進。 .. 位於美國加州思美谷(Simi Vailey)iTfej美國導航舆控 制公司(America^ GNC Corporation)已發明了 MEMS 角速度 傳感器和MEMSIMCJ,請參照美國專利申請:."Micro . 5 _ Electro Mechanical System for Measuring: Angular Rate'序列 號:60/154,700,’’Prpcessing Method for Motion Measurement" 5 序列號:09/399,980,"AngularRate Producer with Micro Electro Mechanical System Techniiogy' 序列號:09/442,596,和"Micro Inertial Measurement Unit", 10 序列號:09/477,151。 本發明之集成微型火控系統背後的動機來自需要獲取 和精確鎖定運動目標,以對目標狙擊步搶達到改進命中 率’部件微型化’減小重量及增加有效射程的目的。我們 可利JIMEMS傳感器的體積小,低成本,批量加工,和耐 15衝擊的優點’為狙擊步搶開發一種低成本,輕重量的微型 火控系統。 如第二圖所示,狙擊步搶的微型火控系統包含: —角速度傳感器和加速度傳感器組件1,固連於步搶 搶管’用來提供搶管姿態和姿態變化率給火控單元; 20 —光學視線2,固連於步搶搶管,提供目標鎖定指 示’例如十字或網格; —激光測距器3,固連於步搶搶管,火控單元提供使 用者與目標之間的距離和距離變化率; —俯仰和方位支架及伺服單元4,用以支持步搶槍管 本紙浪尺度通用中國國家揉丰(CNS ) A4規格(210X297公S ) 3. IO^ooq (請先閎锖背面之注意事項再填寫本耳〕 、裝 rr- d 5 8029 A7 B7 五、發明説明(7') 15 經濟部中央標準局負工消費合作社印裝 及接收從火控.單元來的命令,並產生俯仰和方散支架的運 動,其承载槍管; 一支架角傳感器5 ’連接於步搶槍管和槍基之間,用 以提供支架角測量給火控單元.; —火控單元6 ’装在步搶搶基內,接收從角速度傳感 .器和加速度傳感器組件卜激光測距器3、以及克架绞傳感 器5来的信息”用以輸出命令给俯仰與方位支架及伺服單 元4和電子板機7 ; 一電子板機7,連接於火控單元,用以輸出火控命令 給子彈; —電源8,例如能量密度電池,連接於以上部件’並 給它們提供動力。 在本發明步搶的結構中,參照第二圖所示,—個搶 管,一個光學視線2 ,和一個激光測距器3 ’與一個火控單 元6—起,安裝於一個慣性穩定平台,以便在運動的:使用 者,運動的目標”和i滅的距離要求的條袢下’,改善步搶 的命中率《—個角速度傳感器和加速度傳感器組件,例如 关:國導航與控制公司(American GNC Corporation)先進的商 業產品’微核IMU(coremicro™IMU),安装於搶管體,作 為慣性穩定平台的傳感器乂 依照組合微型火控系統的性能要求,例如體積,成 本’重量,功耗,和控制下的瞄準精度,轉動能力,等 等,組合微型火控系統通過以下組合而實現: 合適的支架微系統結構和設計; 9- 本家棣率(CNS)以胁(210x297公釐) 背 之 注The rapid development of Specific Integrated Circuit (ASIC) and MEMS (Micro-Electro Mechanical-System) technologies has made it possible to improve the performance of existing sniper rifles. '' The main purpose of the present invention is to provide a micro-fire control method and system, by adding low-cost, light-weight, small-volume hardware, and complex algorithms and software, to make the target sniper step hit the probability of hitting, the component's Miniaturization has achieved substantial performance improvements in terms of weight reduction and increased effective range. Among them, measurements from MEMS angular velocity sensors and accelerometers have been used to achieve an inertially stable line of sight and pipe grabbing. The information from the laser rangefinder and the MEMS inertial sensor assembly and the ballistic characteristics of the bullet calculate the firing advance angle of the rifle. Another object of the present invention is to provide a miniature fire control method and system. The paper method scale uses the Chinese National Pick (CNS) A4 specification (210X297 mm) S3. 3.10,000 ---------- -I'r----(please read the notes on the back first and then fill out this note) Order M: _ A7 B7 4 6 8 0 2 9 V. Description of the invention (2) = Tongΐί * Innovative sensor technology The formula calculation and% ^ contact fiber power loss, so that ^ meets the movement of the target, and the increase in distance is required. Gan Gu ί depreciation—provided by Muqi—weave control methods and systems that are dirty enough for military and listening, for example, law enforcement buildings_hunting 'market ’and other dual-purpose purposes. The individual components of the present invention can be used in small devices' such as cameras and mobile communications. Graphic description: Please read first. 10 15 The first picture, the second picture, the third picture, the fourth picture, the fifth picture, the tenth picture, the seventh picture, the eighth picture, and the ninth picture show the current McMillan focus laser sniper step. ',' Shows a sniper structure with a miniature fire control system. , Shows a block diagram of the sniper step micro fire control method. Shows the block diagram of sniper step auto tracking target step. Shows a block diagram of the sniper step grab electronic excitation step. It shows the block diagram of the sniper stepping line lift rate and the method of removing disturbances. A block diagram showing the advance angle calculation for snipe stepping. Laser rangefinder measuring geometry showing sniper stepping. Miniature fire control system showing sniper steps. Order the printed drawing description of the staff consumer cooperative of the Central Procurement Bureau of the Ministry of Economic Affairs: 1-Angular velocity sensor and acceleration sensor assembly L Optical sight 4- Pitch and azimuth bracket and servo unit 3-Laser rangefinder 5- Bracket angle sensor 6 -Fire control unit line-of-sight command calculation module 62-Advance angle calculation module 'ί Zhang Xiaogan used the Chinese National Kneading Rate (OIS) A4 specification (210X297 mm y 83.3.10,000 468029 Printed by the Employees' Cooperative of the Central Provincial Bureau of the Ministry of Economic Affairs V. Description of the invention (3) 621-filter 623-phase: pairing process module _ 7-electronic board machine 622-ballistic calculation module 63_ platform control algorithm: method 8-power source 10 15 This invention relates to a fire control Method and system * More accurately, but not exclusively. It is a miniature fire control method and system for target snooping. It uses the MEMS angular velocity sensor and accelerometer, line of sight. And laser rangefinder. Information, and additional inertial stability: leveling and closing, so that when both the operator and the target are in motion, they achieve practicality in terms of hit probability, miniaturization of components, weight reduction, and increased effective distance In principle, another direct method to increase the lethality of step-robbing, the 'moving target' and the extended distance requirements of the movement operator is to develop a smart bullet, a "mini-missile". But in the near future In the future, it is impossible to implant the entire guidance, navigation and control system (GN & C), and the engine into such a small bullet. With the application specific integrated circuit (ASIC) ^ pMEMS (Micro- With the rapid development of Electro-Mechanical-System technology, it is possible to develop a fire control system to provide the best performance for the smasher to control the grab, to improve the probability of hitting, improve the range, the ability to move targets, and the ability of sports users. Therefore, the present invention provides a low-cost, light-weight, integrated micro-fire control system for step-robbing, which integrates the information from the laser rangefinder and MEMS inertial sensor components and the ballistic characteristics of the bullet, and achieves an inertial stability The fire control system of step-robbing needs to isolate the user's movement by processing the angular velocity sensor and acceleration The signal that the sensor is sensitive to make the pipe grabbing accurately point out the precautions, then i%, order • .1 The size of the paper, the angle of the angle, according to the national standard (CNS) A4 specification (210X297 mm) 83.3 '10,000 5. Description of the invention ( 4) 15 • A7 B7 The Central Ministry of Economic Affairs, the Ministry of Economic Affairs and the Consumer Cooperatives printed the bullets, and the bullet hit the target. However, conventional angular velocity sensors and acceleration sensors cannot be used because of their cost, size, weight, and power consumption. Too big for a rifle and its users. The new frontiers of angular velocity sensor and acceleration sensor technology are being developed ... The technology makes it possible to manufacture conventional inertial devices compared with conventional inertial devices. ’Angular velocity sensors and acceleration sensors have greatly improved in terms of cost, volume, and reliability. MEMS means microelectromechanical system (Microelectromedianical System) or tiny electromechanical device. MEMS devices involve the application of Integrated Circuit (1C) technology to produce controllable mechanically movable structures. MEMS includes microelectronics and micromechanical concepts. Examples of MEMS devices are print heads of inkjet printers' accelerometers that open airbags for automobiles, and micro robots. Microelectronic technology is a very mature technology for making electronic circuits on silicon wafers. As we all know, thirty years ago, with the advent of the first integrated circuit, the silicon revolution began. Integrated circuits have actually changed every aspect of our lives. Over the past three decades, the number of integrated circuits in the integrated circuit industry has increased. The number of transistors integrated in a silicon chip has increased rapidly. The number of transistors in a silicon chip has grown rapidly, and the performance of ICs has been continuously improved. . With the passage of time, huge and responsible, the complex axis has been replaced by compact, high-quality Integrity e-gambling. The growth of the axis circuit function is indeed huge, but most of this— & processing capacity. It is considered logical that the MEMS confined to the chip is considered to be fatal. 下-I believe this -6-the wave scale is applicable to the country and the country ("A4 this grid (210X297 public 嫠 (Please read the precautions on the back before (Fill in this page) 46 8029 A7 Ministry of Economic Affairs, China ’s Inhabitant Quasi Bureau® C Industrial Consumer Cooperatives-S-System V. Description of Invention (5),-The steps will be different: Yes, it will be more integrated than simple integration. Body tube to Silicon is more important. In the next thirty years, the symbol of the silicon revolution will be a new type of function integrated into the chip structure. It will not only make the chip think, ▼, and be sensitive, act, act, and trust.; MEMS It is a combination of micro-devices and systems of electrical and mechanical components. They are manufactured by integrated circuit (1C) batch processing technology, and their sizes range from micro to millimeters. Material deposition, sacrificial oxide, and corrosion processes are available. Engraving. Moving parts no larger than a micrometer. These systems can be sensitive, controlled and implemented microscopically, acting alone or producing macroscopic effects in an array. Some MEMS applications include: 10 Sensors: Inertia, pressure_ Optical switches: Integrated optics, micro-optical biology Medical devices · Micro-rheology massive data storage 15 Micro-instruments Micro-mechanics Micro-pumps Micro-robots MEMS is a growing industry, there is a calculation that estimates that it has a 20 billion-dollar market today's 34 billion in 2003 Market. Using the typical batch manufacturing technology of the semiconductor industry, thousands of identical sensors can be made at the same time, each a few square millimeters in size. Compared with conventional inertial devices, MEMS inertial devices are used for guidance, navigation and control systems in Cost, volume, and reliability are provided in huge paper ft scales, using China ® Jiao Mou (CMS) mega grid (210X2? 7 mm) 83.3 * 10,000 'IJ ^ 0 attack-(please read the back first Note: Please fill in this page again) Order 1 :: β 4,6 8029 Order of the Ministry of Economic Affairs, quasi bureau, shellfish, consumer cooperation, Du printed A7, B7 5. Improvement of invention description (β) .. Located in Simei, California, USA Valley (Simi Vailey) iTfej American navigation control company (America ^ GNC Corporation) has invented the MEMS angular velocity sensor and MEMSIMCJ, please refer to the United States patent application :. " Micro. 5 _ Electro Mechanical System for Measuring: Angular Rate 'serial number: 60 / 154,700, "Prpcessing Method for Motion Measurement" 5 serial number: 09 / 399,980, " AngularRate Producer with Micro Electro Mechanical System Techniiogy' serial number: 09 / 442,596, and " Micro Inertial Measurement Unit ", 10 Serial number: 09 / 477,151. The motivation behind the integrated miniature fire control system of the present invention comes from the need to acquire and precisely lock the moving target in order to achieve the goal of sniper stepping to improve the hit rate 'miniaturization of components' to reduce weight and increase effective range. We have the advantages of small size, low cost, batch processing, and resistance to 15 impacts of JIMEMS sensors. Develop a low-cost, light-weight miniature fire control system for the sniper step. As shown in the second figure, the miniature fire control system for sniper stepping includes: —Angular velocity sensor and acceleration sensor assembly 1, fixed to the stepping grabbing tube 'to provide the tube grabbing attitude and attitude change rate to the fire control unit; 20 —Optical line of sight 2, fixed to the step-robbing tube, providing a target lock indication, such as a cross or grid; —Laser rangefinder 3, fixed to the step-robbing tube, the fire control unit provides the user and the target. Distance and distance change rate; —Elevation and azimuth bracket and servo unit 4 to support step gun barrel paper wave standard Universal Chinese National Kneading (CNS) A4 specification (210X297 male S) 3. IO ^ ooq (please first锖 Please fill in the ears for the notes on the back], install rr-d 5 8029 A7 B7 V. Description of invention (7 ') 15 Print and receive orders from the fire control. And generates the movement of the pitch and square bracket, which carries the barrel; a bracket angle sensor 5 'is connected between the rifle barrel and the gun base to provide the bracket angle measurement to the fire control unit;-fire control unit 6 'Packed in a step grab base, receiving from Speed sensor. Accelerometer and sensor components, laser rangefinder 3, and gimbal twist sensor 5 are used to output commands to the pitch and azimuth bracket and servo unit 4 and electronic board machine 7; an electronic board machine 7 , Is connected to the fire control unit to output fire control commands to the bullets;-a power source 8, such as an energy density battery, is connected to the above components and provides power to them. In the structure of the present invention, refer to the second figure It shows that a tube grabbing, an optical line of sight 2, and a laser range finder 3 'and a fire control unit 6 are installed on an inertial stabilization platform to move: user, moving target "and i The distance required by the target is reduced, and the hit rate of the step-by-step improvement is improved. "An angular velocity sensor and acceleration sensor components, such as Guan: American GNC Corporation's advanced commercial product 'microcore IMU (coremicro ™ IMU), a sensor installed on the pipe grabbing body as an inertial stabilization platform, according to the performance requirements of the combined miniature fire control system, such as volume, cost, weight, power consumption, and control Aiming accuracy in rotation ability, etc., a combination of micro-fire control system implemented by combining the following: suitable scaffold structure and design of the micro system; 9- clan rate di (CNS) to flank (210x297 mm) of the back Note

I 頁 f 83.3. l〇f〇〇〇 -*v·· 46 B029 A7 B7 五、發明説明(8 ) !5 經濟部中央榡準局貝X消費合作枉印製 主敷支架:.控制系·統的實現.; 控制算法的實現。 · 為使命中率達到最大’提供了一個有附加能力的微型 火控系統.以鎖定目標。通過一個使甩者车環中的控制機 制’該火控系統具有τ鎖定特性。開火提前角的計算基於 從激光測距器得到,的到目標的視線距離和距離的變化率, 以及子彈的彈道_特怪。在視_線的两格.中進行自.動和連績的· 調整,以考慮目標的運動和距離。關鍵的數據是視線率信 息,其可從軟件的估計濾波器得到。使用者接著像普通步 搶一樣,把網格對準目/標以便在相對遠的距離上達到高的 命中率。$過排斥‘由於使用者..的運動引起的干擾力矩,慣 性穩定的板線和搶管提供了極精確的指向。 在微型火控系統中,搶管和激光测距器被穩定,這樣 適於測量目標坐標以及隔離使用者產生的擾動β然而,從 激光測器來的目標信息僅構成了火控計算所必需的輸入 數據的—部分β如果子彈要精確地擊中一個運勳目標,也 需要計算出子彈飛行轨跡的精確描述。子彈一股地並不沿 條直線與目標交於—點β如果子彈直接瞄手運動目標, 在子彈飛行時間過程中 > 作用在其上的物理現象會使子彈 錯過目標。 , 需要考慮解決的微型火控問題可分為兩類: 子彈飛行時間過程中的目置裡里導貴赛應;及 被總體稱為彈道學的物理現象,其產生—個彎曲的子 彈運動軌跡。 *40_ ( 210X297^» 83. 3.10,000 (請先閣讀背®-之注意事項再填寫本頁) 訂 .脚 468029 五 、發明説明(9\ ) A7 B7 15 經濟部中央揉準局員工消費合作社印装 f照第九_示,欺控單元6進-步包含:: 命令計雜塊61 ’ 從妓雜雜5接 θίΐ ’錄光測距器接收距難量,以便為平台 控制算法6研算_率命令;... ρ 算模塊62,從激光測距器接收距_量, 』便為平&控難法62計额_ ; 肺制算法63,從平合控制算法62接收提—前角,.. 從f線率命令計難塊61純鶴率命令,⑽為俯仰和 万位支架及舰單元2tt算妓控制命令。 參照第七圖所示,提前角計算模塊62進-步包含: -遽波器62卜例如-個擴展的卡爾曼職波 器,用於從激光測距器3接收距離和距離變化率,以產生 當前目標位置和速度; 一 —彈道計算模塊622,利用當前目標位置和速度以及 子彈未來目標位置,計算子彈飛行時間; —相對運動過程模塊623 ’利用子彈飛行時間估計未 來目標位置,並反饋未來目標位置給彈道計算過程模塊 622,並計算提前角。 參照第三圖所示,步搶之微型火控方法包含以下步 驟: 開始由使用者獲取目標; 通過使用者在環中(Operator-in-the-Loop)的火控單元方 法跟蹤目標; 通過ik用者在環中(〇perator-in-the-Loop)的火控單元激 -11- 本紙通用中Β國家揉準(CNS ) A4规格(210X297公釐) 83.3.10,000Page f 83.3. L〇f〇〇〇- * v ·· 46 B029 A7 B7 V. Description of the invention (8)! 5 Central Ministry of Economic Affairs, Bureau of Standards, and Consumer Cooperation. Printed main support: Control system. System implementation. Control algorithm implementation. · Provides a miniature fire control system with additional capabilities for maximum mission rate to target. The fire control system has a τ lock characteristic by a control mechanism in the ring of the dumper's car. The calculation of the firing advance angle is based on the distance from the laser rangefinder to the target and the rate of change of the distance, as well as the trajectory of the bullet. Automatic and continuous adjustments are made in the two lines of sight to take into account the target's movement and distance. The key data is the line-of-sight information, which can be obtained from the software's estimation filter. The user then aligns the grid with the target / target like normal strides to achieve a high hit rate over a relatively long distance. $ Over-rejection ‘Because of the moment of interference caused by the user ’s movement, the inertially stable plate line and tube grab provide extremely accurate pointing. In the miniature fire control system, the pipe grabbing and the laser rangefinder are stabilized, which is suitable for measuring target coordinates and isolating the disturbances generated by the user. However, the target information from the laser rangefinder only constitutes necessary for fire control calculations. The -part of the input data. If the bullet wants to hit a transport target accurately, it also needs to calculate the accurate description of the bullet's flight trajectory. The bullet does not intersect the target along a straight line—point β. If the bullet is aimed directly at the hand moving target, the physical phenomenon acting on it during the flight time of the bullet will cause the bullet to miss the target. The micro-fire control problems that need to be considered can be divided into two categories: the guides in the course of the bullet's flight time; and the physical phenomenon generally known as ballistics, which produces a curved bullet trajectory . * 40_ (210X297 ^ »83. 3.10,000 (please read the precautions of the ® first and then fill out this page) Order. 468029 V. Description of the invention (9 \) A7 B7 15 Staff of the Central Ministry of Economic Affairs of the Ministry of Economic Affairs Cooperative printed f according to the ninth _, the bullying control unit 6 step-by-step contains :: order miscellaneous block 61 'from the prostitute miscellaneous 5 access θίΐ' receiving distance measuring device, in order to control the algorithm for the platform 6 Calculation _ rate command; ... ρ calculation module 62, receives the distance _ amount from the laser rangefinder, ”is Ping & control difficult method 62 count _; lung control algorithm 63, received from the Pinghe control algorithm 62 Raise—Front angle .. From the f-line rate command to calculate the difficulty block 61 pure crane rate command, 算 calculate the prostitute control command for the pitch and the tens of thousands of brackets and the ship unit 2tt. Referring to the seventh figure, the advance angle calculation module 62 enters -The steps include:-A waver 62 such as an extended Kalman job waver, for receiving the distance and the rate of change of distance from the laser rangefinder 3 to generate the current target position and speed; a-ballistic calculation module 622 , Using the current target position and speed, and the future target position of the bullet to calculate the bullet flight time;-the relative motion process module 623 'Using the bullet flight time to estimate the future target position, and feedback the future target position to the trajectory calculation process module 622 and calculate the advance angle. As shown in the third figure, the step-by-step micro-fire control method includes the following steps: Start by the user Obtain the target; Track the target by the user-in-the-loop fire control unit method; Use the ik user-in-the-loop fire control unit to stimulate the -11 -This paper is commonly used in China B National Standard (CNS) A4 (210X297 mm) 83.3.10,000

Λ6Β〇2 Ο Α7 Β7 五、發明説明(10 ) . . _ . ~一~;~ 發火控命令。 步騾.1的優選實現方案公開如下: u開始操作時,鎖定兩軸穩定支架與槍管; U操餘轉錄,在絲视輯十字鎌上獲取目: s標’像現有的'步槍一樣方便; 目.標被連續跟蹤,被雨軸支架平台鎖定在十字光標 ^ ’通過從電方矩器產生和·慣性逮率陀螺_感谢到.时方位和 威角縣命令,操作者的麵被_,運動目標被鎖定 到十字光標。在穩定狀態下,操作者可像標準步搶一樣, 10通過給搶基輪入運動來調整目標位置於十字光標。‘ 同時,用複雜的·火控算法連續計算提前角,其基於從 測距器來的視線長度和長度變化率測量以及子彈的彈道特 性.,以便調整光學視線。 當使用者扣動步搶板機開火時,槍管已被平台穩定並 I5〜自動轉動一個提前角跟蹤目標’並且排斥運動干擾。接 著,通過電子板機發射子彈以使輸入干擾力矩最小。 經涛部中央標準局負工消費合作社印装 步驟2的目的是當目標在運動及使用者引入干擾時, 在所有的時間保持目標處於光學視線的十字光標β即,視 跟蹤線和視線率理想地重合。視跟蹤線和視線率直接的誤 20差由應用來自激光測距器的信息和來自使用者的擾動估計 目標運動’而其與目標運動無關。該誤差可由使用者進— 步修正。 參照第四圖所示,步騍2造一步由以下步驟組成: 2.1激活激光測距器和兩軸穩定支架平台; Λ2- 83.3. !0,〇〇〇' (請先閲讀背面之注意Ϋ項再填寫本頁) 本紙張X度速用中® S家揉準(CNS ) Α4規格(210X297公釐) 46 802 A7 B7 五、發明説明(a) 經濟部中夬操率局負工消资合作,杜印¾. 、2.2利用從激光測距器來的信息和從支架角.傳感器來昤 角測量計算視線率命令; 2,3執行視線命令’消除干擾力矩,以便通過控制雨軸 穩定支架平台的手段連續地跟蹤和鎖-定目標於十字光標。 5 參照第五圖所示’.步驟3進一步由以下步驟組成: 3.1應用從測距器來的視線距離和距離變化率,測量以及 子彈-的彈道特性,連續計算提前角r以便調整光學視線; 3.2當電子板機被使用者扣下時,根據計算好的提前角 自動轉動搶管一個提前角,以便跟蹤目標; 10 3.3以由平台穩定的搶管發射子彈,以消除運動干擾。 參-第六圖所示,步驟2.3可通過兩軸機械支架和相關 的主勳控制算法實現。. 參照第七圖所示,利用從激光測距器來的視線距離和 距離變化率和子彈的彈道特性來預測提前角^相對運動效 15應的結果使得步搶需要指向當前運動目標位置加一個位移 的一個點。位移量或提前量取決於相對速度和子彈從開火 點到目標的飛行時間。子彈和目標的相撞點是未來的目標 位置。外彈道學是一個常用術語,用於描述一些引起飛行 中的投射體(子彈)改變方向,速度或兩者都有的自然現 20象。這些現象包括: 重力 粘滯 風力 漂移 --------<裝— . ~ {' (請先閎讀背面之注意事項再填寫本頁} ,1T. •13-Λ6B〇2 〇 Α7 Β7 V. Description of the invention (10).. _. ~ 一 ~; ~ Issue a fire control command. The preferred implementation of step 骡 .1 is disclosed as follows: u Start the operation, lock the two-axis stabilizing bracket and the barrel; U manipulate the transcription, and get the target on the Silk Vision Cross Sickle: s mark 'as convenient as the existing' rifle The target is continuously tracked and locked on the cross cursor by the rain axis bracket platform ^ 'Through the generation from the electric torque generator and the inertial capture rate gyro _ thanks to the time position and Weijiao County orders, the operator's face was _, moved The target is locked to the cross cursor. In the stable state, the operator can adjust the target position to the cross cursor by entering the motion of the base wheel as in the standard step grab. ‘At the same time, a sophisticated fire control algorithm is used to continuously calculate the advance angle, which is based on the line-of-sight length and length change rate measurements from the rangefinder and the ballistic characteristics of the bullet in order to adjust the optical line of sight. When the user pulls the stepping grab machine and fires, the barrel is stabilized by the platform and I5 ~ automatically rotates an advanced angle to track the target 'and repels motion interference. Next, the bullet is fired by the electronic board machine to minimize the input disturbance torque. The purpose of printing by the Central Standards Bureau of the Ministry of Economic Affairs and Consumers Cooperatives in step 2 is to keep the target in the optical sight of the cross cursor β at all times when the target is in motion and the user introduces interference. Ground overlap. The direct error between the line of sight and the line of sight is estimated by applying the information from the laser rangefinder and the disturbance from the user to estimate the target motion ', which is independent of the target motion. This error can be further corrected by the user. As shown in the fourth figure, step 2 consists of the following steps: 2.1 Activate the laser rangefinder and the two-axis stabilization bracket platform; Λ2- 83.3.! 0, 〇〇〇 '(Please read the note on the back first (Fill in this page again) This paper is X-speed in use® S Standard (CNS) Α4 Specification (210X297 mm) 46 802 A7 B7 V. Description of the Invention (a) Work and Consumption Cooperation of the Ministry of Economic Affairs Du Yin ¾., 2.2 Use the information from the laser rangefinder and the angle measurement from the bracket angle sensor to calculate the line of sight command; 2,3 Execute the line of sight command 'to eliminate interference torque, so as to stabilize the support platform by controlling the rain axis The means of continuous tracking and locking-targeting the cross cursor. 5 Referring to the 'fifth figure', step 3 is further composed of the following steps: 3.1 Apply the line-of-sight distance and distance change rate from the rangefinder, the measurement and the ballistic characteristics of the bullet, and continuously calculate the advance angle r to adjust the optical line of sight; 3.2 When the electronic board is buckled by the user, it automatically rotates the pipe to grab an advance angle based on the calculated advance angle to track the target; 10 3.3 The bullet is fired by the platform's stable pipe grab to eliminate motion interference. As shown in Fig.6, step 2.3 can be realized by the two-axis mechanical support and the related master control algorithm. Referring to the seventh figure, the line-of-sight distance from the laser rangefinder and the distance change rate and the ballistic characteristics of the bullet are used to predict the advance angle. The result of the relative motion effect is 15 to make the stepping point to the current moving target position plus one. A point of displacement. The amount of displacement or advance depends on the relative speed and the time it takes the bullet to travel from the firing point to the target. The collision point between the bullet and the target is the future target position. Outer ballistics is a common term used to describe some natural phenomena that cause the projectile (bullet) in flight to change direction, speed, or both. These phenomena include: gravity viscous wind drift -------- < equipment—. ~ {'(Please read the precautions on the back before filling out this page}, 1T. • 13-

本紙張準(CNS) Α1ϋ:( 2i〇~^*T 83·3· 10,000 經濟部中夹榡丰局員工消贫合作、社印复 46802^ A7 -----;_______B7_ 五、發明説明(12) 哥氏(Coriolis)效應 相對運動效應的計算產生子彈和目標實際的湘撞點。 彈道效應的計算產生由於子彈飛行執跡的彎曲而產生的瞄 準修正。這些修正不改變最後的柜撞點,但引起子彈轨跡 5與目標路復的相交。 · 參照第七圖所示,步驟3.1進一步包含 3.3.1通過一個濾波器的手段,計算當贫目標的位置和· 速度, 3-3.2利用當目1』目標的位_置和迷度及未來目標位置,計 10算子彈的飛行時間; 3.3.3利用子彈飛行時間估計未來目標位置,並把未來 目標位置反饋給步騾3.3.2及計算提前角。 例如,對於給定的一個空間點,可計算出一條轨跡和 —個飛行時間。然而,不能直接給出準確的空間攔截點, 15由於該點取決於其計算所得之飛行時間。開始時,由於未 來目標位置和後繼的最終飛行時間都時未知的,火控問题 的解是一個逐渐逼近方法的應用。因為測量到的當前目標 位置,是空間第一個已知點,該位置被用來產生開火角和 飛行時間的一次逼近第一號轨跡。如果基於該—次逼近而 20發射子彈,顯然它會從運動目標後面穿過。現在計算子彈 落後目標多遠》換而言之,相對於嘗前位置計算飛行時間 結束時目標的位置。計算新的位置和新的攔截點。如果對 這一新點發射子彈,其仍會落後於目標。利用第二號轨跡 的時間’可計算新的目標位置,第三條轨跡和時間。繼續Standard of this paper (CNS) Α1ϋ: (2i〇 ~ ^ * T 83 · 3 · 10,000 Poverty Alleviation Cooperation of Employees in Jiafeng Bureau of the Ministry of Economic Affairs, Reprint 46802 ^ A7 -----; _______B7_ V. Description of the Invention ( 12) The calculation of the Coriolis effect relative motion effect produces the actual Xiang collision point of the bullet and the target. The calculation of the ballistic effect produces the aiming correction due to the bending of the bullet flight track. These corrections do not change the final cabinet collision point , But cause the intersection of the bullet trajectory 5 and the target path complex. • Referring to the seventh figure, step 3.1 further includes 3.3.1 through a filter to calculate the position and speed of the poor target, 3-3.2 use When the position of the target 1 and the position and future of the target and the future target position, calculate the flight time of the bullet 10; 3.3.3 Use the bullet flight time to estimate the future target position, and feed back the future target position to step 3.3.2 and Calculate the lead angle. For example, for a given space point, one trajectory and one flight time can be calculated. However, the exact space intercept point cannot be given directly, as this point depends on its calculated flight time .open As the future target position and subsequent final flight time are unknown at this time, the solution of the fire control problem is an application of a gradual approximation method. Because the measured current target position is the first known point in space, the position is An approach to the first trajectory used to generate the firing angle and flight time. If a bullet is fired at 20 based on this approximation, it will obviously pass behind the moving target. Now calculate how far the bullet is behind the target "In other words Calculate the position of the target at the end of the flight time relative to the previous position. Calculate the new position and the new intercept point. If a bullet is fired at this new point, it will still lag behind the target. Use the time of the second trajectory ' New target position, third trajectory and time can be calculated. Continue

(請先閲讀背面之注意事項再填寫本頁) /裝.(Please read the notes on the back before filling this page)

rIT I- 0 468029 Α7 Β7 五、發明説明U3 ) - ·. 計算不同的目:標位置和時間,最近雨次所得之時間差別很· 小。 . 在步驟3.3.1中,優選的濾波器為一假擴展的卡爾曼濾 波器》如第八圓所示,其說明了擴展的卡爾曼濾波器的測1 · · -. . · 5.量幾何結樓。目:標位置和速度的估計和預測算法通過一偭 擴展的卡爾曼濾波器來實現,其測量方程如下:_ _ r = ^xxi-y^zz 5 Λ 2 φν = atan — (.請先閱讀背面之注意事項再填寫本頁) 經濟部中央標準局員工消費合作社印装 本紙張尺度適用中國國家梂準(CNS ) Α4規格(210Χ297公釐) 83.3.10,000rIT I- 0 468029 Α7 Β7 V. Description of the invention U3)-·. Calculate different targets: target position and time, the time difference between the recent rains is very small. In step 3.3.1, the preferred filter is a pseudo-extended Kalman filter. As shown in the eighth circle, it illustrates the measurement of the extended Kalman filter. Geometric knot building. Objective: The target position and velocity estimation and prediction algorithms are implemented by a 偭 extended Kalman filter. The measurement equation is as follows: _ _ r = ^ xxi-y ^ zz 5 Λ 2 φν = atan — (.Please read first Note on the back, please fill in this page again.) The printed paper size of the Consumer Cooperatives of the Central Bureau of Standards of the Ministry of Economic Affairs applies to the Chinese National Standard (CNS) A4 specification (210 × 297 mm) 83.3.10,000

Claims (1)

d6 B029 六、申請專利範圍 工.-種步搶的微型火控系統,包含: -酸於碰歡平㈣齡,其錄於步槍槍基, 其中’該微型火控系統包含: -触麟絲和-加速度偏器雜,連聯於該步 5搶乙槍管,用來提供該搶管姿態和姿態變化率給-火控單 元; 一光學視線,固連於該步搶之搶管,提供目標銷定指 示; BS _ —激光測距器,其固連於該步搶之該搶管,給—火控 10單元提供使用者與目標之間的距離和距離變化率; —俯仰和方位支架及伺服單元’其用以支持該步搶之 .該管及接收從該火控單元來的命令,並產生俯仰和方位支 架的運動,其承载該搶管; —支架角傳感器,連接於該步搶之該搶管和搶基之 15間’用以提供支架角測量給該火控單元; 其中,該火控單元,裝在該步搶槍基内,接收從該角 速度傳感器和加速度傳感器組件,該激光測距器,以及該 支架紋傳感器來的信息,用以輸出命令給該俯仰與方位支 架伺服單元和一電子板機,其連接於該火控單元,並輸出 2〇射擊命令以發射子彈者。 經濟部智慧財產局員工消費合作社印製 2. 如申請專利範圍第1項之步槍的微型火控系統,其中, 該光學視線提供對該目標鎖定指示為一交叉十字者。 3. 如申請專利範圍第1項之步槍的微型火控系統,其中, 該光學視線提供對該目標鎖定指示為一網格者。 -16- 本紙張尺度適用中國國家標準(CNS)A4規格(210 X 297公釐) 46 8029d6 B029 6. The scope of the patent application.-A miniature fire control system for step-robbing, including:-acidic bumper age, recorded in the base of the rifle, where 'the miniature fire control system contains: The-and acceleration deflector are mixed, and are connected to the 5th gun barrel in this step, which is used to provide the gunshot attitude and attitude change rate to the -fire control unit; an optical line of sight, which is fixed to the snatch tube in this step, provides Target pinout instruction; BS _ — laser rangefinder, which is fixed to the grabbing tube in this step, and provides — the fire control unit 10 with the distance and rate of change between the user and the target; — pitch and azimuth bracket And servo unit 'to support the step grab. The tube and receive commands from the fire control unit, and generate the pitch and azimuth bracket movement, which carries the tube grab;-bracket angle sensor connected to the step 15 of the grabbing pipe and the grabbing base are used to provide the bracket angle measurement to the fire control unit; wherein the fire control unit is installed in the stepping gun base and receives the angular velocity sensor and acceleration sensor assembly, The laser rangefinder, and the bracket pattern Information to the sensor, for outputting a command to the pitch bearing bracket with a servo unit and an electronic board machine, which is connected to the fire control unit, and outputs the command to fire bullets fired 2〇 persons. Printed by the Consumer Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs 2. For example, the miniature fire control system of the rifle in the first patent application scope, wherein the optical line of sight provides a lock indication of the target as a cross. 3. For example, the miniature fire control system for a rifle in the scope of patent application, wherein the optical line of sight provides a lock indication of the target as a grid. -16- This paper size is applicable to China National Standard (CNS) A4 (210 X 297 mm) 46 8029 、申請專利 4. 15 經濟部智慧財產局員工消費合作社印製 兮t請翻項之步槍的㈣火㈣統,其中, Μ电虑為高能密度電池者。 請專利細第1項之步賴觀火控紐,其中, 琦火控單元進一步包含: 兮古:視^命令計算魏,職倾錢浦感器接收 =角彳g號’從該激脑距器接收距测量,以便為平 P控制算法計算視線率命令;Μ 、:提前能龍塊,從織光獅雜疑測量,以 便為該平台控制算法計算提前角; /、-平台鋪錢,從該平台翻算法接收該提前角, 從該視線率命令計算魏純錄線率命令,以便為該俯 仰和方位支紐1¾]鮮元計算支據騎令,為該俯 仰和方位支架及伺服單元計算支架控制命令者。 6. 如申請專利範圍第5項之步搶的微型火控系統,其中, 該提前角計算模塊進一步包含: 一濾波器,用於從該激光測距器接收該距離和距離變 化率,以產生當前目標位置和速度; 一彈道計算模塊,利用該當前目標位置和速度以及子 彈未來目標位置,計算該子彈飛行時間; 一相對運動過程模塊,利用該子彈該飛行時間估計該 未來目標位置,並反饋該未來目標位置給該彈道計算過程 模塊,並計算該提前角者。 7. 如申請專利範圍第6項之步搶的微型火控系統,其中, 該濾波器為一擴展的卡爾曼濾波器者。 -17- ^紙張尺度適用_國國家標準(CNS)A4規格(21〇 χ 297公釐) (請先閱讀背面之注意事項再填寫本頁) 裝 tr·-: 468029 A8 B8 .C84. Applying for a patent 4. 15 Printed by the Consumer Cooperatives of the Intellectual Property Bureau of the Ministry of Economic Affairs, please refer to the firearm system of the rifle which is requested to be reclassified. Among them, M Electric considers those with high energy density batteries. Please follow the steps in item 1 of the patent to view the fire control button. Among them, the Qi fire control unit further includes: Xigu: Calculates the command to calculate Wei, Zhiqian Qianpu sensor reception = angle 彳 g 'from this brain stimulation The receiver receives the distance measurement in order to calculate the line-of-sight command for the flat P control algorithm; M,: can advance the dragon block from the weaving lion miscellaneous measurement to calculate the advance angle for the platform control algorithm; The platform turning algorithm receives the advance angle, calculates the Wei Chun recording line rate command from the line-of-sight rate command, in order to calculate the riding order for the pitch and bearing support, and calculates the support control for the pitch and bearing support and the servo unit. Commander. 6. The miniature fire control system according to step 5 of the scope of patent application, wherein the advance angle calculation module further includes: a filter for receiving the distance and the distance change rate from the laser rangefinder to generate Current target position and speed; a trajectory calculation module that uses the current target position and speed and the future target position of the bullet to calculate the bullet's flight time; a relative motion process module that uses the bullet's flight time to estimate the future target position and feedback The future target position is given to the trajectory calculation process module, and the advance angle is calculated. 7. The miniature fire control system as claimed in step 6 of the scope of patent application, wherein the filter is an extended Kalman filter. -17- ^ Applicable paper size _ National Standard (CNS) A4 (21〇 297 mm) (Please read the precautions on the back before filling this page) Loading tr ·-: 468029 A8 B8 .C8 六、申請專利範圍 經濟部智慧財產局員工消費合作社印製 8:如申請專利範圍第2項之步搶的微型火控系統,其中, 該火控單元進一步包含: 命令計算模塊,用於從鼓㈣傳感器接收 涵支架角信號,從該激光測距離接收距離測量,以便為平 5台控制算法計算視線率命令; y提則角計算模塊,從該激光測距器接收該距離测 量’以便為該平台魏算法計算提前角; /、、—平台控制算法’倾平台控雜法接收該提前角, 從該視線率命令計算模塊接收該視線率命令,以便為該俯 10仰和方位支架及伺服單元計算支架控制命令者。 9:如申請專利麵第哺之步㈣微型火控紐,其中, 該提前角計算模塊進—步包含: —德波器’用紐織光》W純該麟和距離變 化率,以產生當前目標位置和速度; 15 —騎計算缝,顧難前目標位置和速度以及子 彈未來目標位置’計算該子賴行_ ; -相對運騎程概,_該子彈該飛行時間估計該 未來目標位置’並反饋該未來目標位置給該彈道計算過模 塊,並計述提前角者。 2〇 10.如申請專利範圍第9項之步搶的微型火控系統,其中, 該濾波器為一擴展的卡爾曼濾波器者。 11.如申請專利範圍第3項之步搶的微型火控系統,其中, 該火控單元進一步包含: 一視線率命令計算模塊,用於從該支架角傳感器接收 •18- 本紙張尺度適用中國國家標準(CNS)A4規格(21〇 X 297公Μ ) C請先閱讀背面之注意事項再填寫本頁) 裝 訂— - 468029 A8 B8 C8 D8 六、申請專利範圍 該支架角信號’從該激光測距器接收距離測量,以便為平 台控制算法計算視線率命令; 一提前角計算模塊,從該激光測距器接收所距離测 量,以便為該平台控制算法計算提前角; 5 /、一平台控制算法,從該平台控制算法接收該提前角, 從該視線率命令計算模塊接收該視線率命令,以便為該俯 和方位支架及伺服單元計算支架控制命令者, 12‘如申請專利範圍第u項之步搶的微型火控系統,其 中,該提前角計算模塊進一步包含: 1〇 一"濾波器,用於從該激光测距器接收該距離和距離變 化率,以產生當前目標位置和速度; b 一彈道計算模塊,利用_嘗前目標位置和速度以及子 彈未來目標位置,計算該子彈飛行時間; -相對麵職模塊,棚鮮彈賴行時間估社該 15未來目標位置,並反饋該未來目標位置諄彈道計箅過提模 塊,並計算該提前角者。 〜一" 13, 如申請專利範圍第12項之走搶的微型火控系統,其 中,該濾波器為一擴展的卡零曼濾波器者。 14. 如申請專利範園第4項之步搶的微型火控系統’其中, 經 濟 部 智 慧 財 產 局 員 工 消 費 合 作 社 印 製6. Scope of patent application. Printed by the Consumer Cooperatives of the Intellectual Property Bureau of the Ministry of Economic Affairs. 8: The miniature fire control system such as step 2 of the scope of patent application. The fire control unit further includes: a command calculation module for ㈣ The sensor receives the angle signal of the stent bracket, and receives the distance measurement from the laser range to calculate the line-of-sight command for the 5 control algorithms; y The angle calculation module receives the distance measurement from the laser rangefinder 'in order to The platform Wei algorithm calculates the advance angle; / 、、 — The platform control algorithm 'tilt platform control miscellaneous method receives the advance angle, and receives the line of sight command from the line of sight command calculation module in order to provide the pitch 10 elevation and azimuth bracket and servo unit Calculate stand control commander. 9: For the first step of applying for a patent, a miniature fire control button, in which the advance angle calculation module further includes:-a de-wave device 'uses a button to weave light', the pure distance and the rate of change of distance to generate the current Target position and speed; 15 —Calculate the seam, target position and speed before the problem, and the future target position of the bullet 'calculate the sub-report_;-relative to the riding range, _ the bullet's flight time to estimate the future target position' And feedback the future target position to the trajectory calculation module and account for the advance angle. 2 10. The miniature fire control system according to step 9 of the scope of patent application, wherein the filter is an extended Kalman filter. 11. The miniature fire control system according to step 3 of the scope of patent application, wherein the fire control unit further includes: a line-of-sight command calculation module for receiving from the bracket angle sensor. 18- This paper standard is applicable to China National Standard (CNS) A4 specification (21〇X 297 MM) C Please read the precautions on the back before filling this page) Binding —-468029 A8 B8 C8 D8 VI. Patent application scope The angle signal of this bracket is measured from this laser The distance meter receives the distance measurement to calculate the line-of-sight command for the platform control algorithm; an advance angle calculation module receives the distance measurement from the laser rangefinder to calculate the advance angle for the platform control algorithm; 5 /, a platform control algorithm Those who receive the advance angle from the platform control algorithm, and receive the line of sight command from the line of sight command calculation module in order to calculate the frame control command for the pitch and azimuth bracket and servo unit, 12 ' The step-by-step miniature fire control system, wherein the advance angle calculation module further includes: a 10- " filter for detecting from the laser The ranger receives the distance and the rate of change of the distance to generate the current target position and speed; b a trajectory calculation module that uses the previous target position and speed and the future target position of the bullet to calculate the bullet flight time; Shed fresh bullet travel time estimates the 15 future target positions, and feeds back the future target position (ballistic meter) overtaking module, and calculates the advance angle. ~ 一 & 13 ,; For example, the micro fire control system of claim 12 in the scope of patent application, in which the filter is an extended Kalman filter. 14. For example, the mini-fire control system in the fourth step of the patent application park is printed by the Intellectual Property Office of the Ministry of Economic Affairs and the Consumer Cooperatives. 20該火控單元進一步包含: —視線率命令算模塊,用於從該支架角傳感器接收該 文架角信號,從該激光測距器接收距離測量,以便為平台 控制算法計算視線率命令; —提前角計算模塊’從該激光測距器接收該距離測 -19· 本紙張聽_中iiS^CNS)A4規格(210 x 297公心 A6 802920 The fire control unit further includes:-a line-of-sight command calculation module for receiving the angle angle signal from the bracket angle sensor and a distance measurement from the laser rangefinder to calculate the line-of-sight command for the platform control algorithm;- Advance angle calculation module 'receives the distance measurement from the laser rangefinder -19 · This paper listens _SiiCN ^ CNS) A4 size (210 x 297 public heart A6 8029 六、申請專利範圍 15 經 濟 部 智 慧 財 產 M] 員 工 湞 費 合 作 社 印 製 量,以便為辭台綱算絲雜前角; 從气相Si法’從該平台控制算法接收該提前角, 仰^古7計算模塊接收該視線率命令,以便為該俯 ^万Μ紐鎌單赫敎據麻令者。 .口申請專利範圍第Μ項之步搶的麵火控系統,其 中,該提前角計算模塊進—步包含: -驗器’祕從贿光游器餘該雜和距離變 化率,以產生當前目標位置和速度; 一彈道計算模塊’利職當前目雛置和速度以及子 縣來目標錄,計算該子㈣行時間; -相對運動麵概,咖該子賴·_估計該 未來目位置,並反饋該未來目標位置給該彈道計算過程模 塊,並計算該提前角者。 16.如申請專利範圍第15項之步搶的微型火控系統,其 中,該濾波器為一擴展的卡爾曼濾波器者。 Π.—種步搶的微型火控方法,包含一固連於慣性穩定平台 的搶管,其安裝於步搶搶基,其中該微型火控方法包含以 下步騍: (a) 開始由使用者獲取目標; (b) 通過使用者在環中的火控單元方法跟蹤該目標; (c) 通過該使用者在環中的火控單元激發火控命令者。 18.如申請專利範圍第π項之步搶的微型火控方法,其 中,該步驟(a)進一步包含步騾: (a.l)開始操作時,鎖定兩軸穩定支架與搶管; ------------ 裝-i C請先閲讀背面之注意事項再填窝本頁} -20- 國國家標準(CNSM4規格(210 X 297公釐 A8 B8 C8 468029 六、申請專利範圍 0.2)由操作者_該步搶’在縣視_十字光標上獲取 目標者。 I9·如申請專利範圍第IS項之步搶的微型火控方法,其 中該目標被連績跟蹤’由慣性穩定平台鎖定在該之十字 5光標上’其平台為兩軸支架平台,通過從電力矩器和慣性 速率陀螺的敏感產生方位和高度角速率命令,因此該操作 者的運動被隔離’該目標被鎖定在該光標上,所以該操作 者能夠通過輸入運動給該槍墓,在穩定條件下,調整該目 標於該之十字光標者。 10 20.如申請專利範圍第19項之步搶的微型火控方法,其 中’利用複雜的火控算法,基於视線角,從測距器來的角 速率測量’以及子彈的彈道特性,連續計算提前角,雛 光學視線’因此當該操作者激發該步搶發射時,該搶管被 該廣性穩疋平台穩定’並自動轉動—該㈣角,並且排除 15於擾運動者。 21‘如申請專利範圍第17項之步槍的微型火控方法,其 中,該步驟(b)進一步包含: (b. 1)激活上述激光測距器和憤性穩定支架平台; (b_ 2)利職上述激光麻器賴信息和從支架浦感器來 20的角測量’計算線率命令; 03.3)執行該視線命令,排斥干谩力矩,以便通過控制該慣 性穩定支架平台的手段,連續地跟蹤和鎖定該目標於該十 字光標者。 22_如申請專利範圍第21項之步搶的微型火控方法,其 21· 本紙張尺度適用中國國家標準(CMS)A4規格(210 X 297公釐) {請先閲讀背面之注意事項再填寫本頁) 裝 矿: 經濟部智慧財產局員工消費合作社印製 468029 經濟部智慧財產局員工消費合作社印製 g___ 六、申請專利範圍 中’該步騾(C)進一步包含: (C. 1)應用從該測距器來的該視線距離變化率測量以及子彈 的彈道特性,連續計算提前角,以便調整該光學視線; (c.2)當電子板機被用者扣下時,自動轉動該搶管—個提前 5角’以便跟蹤該目標; (c.3)以由慣性平台穩定的該搶管發射子彈,以排斥運動干 擾者。 23.如申請專利範圍第π項之步搶的微型火控方法,其 中’該步驟(c.3)是通過一雙軸機械框架和相應的主動控制 ^ 算法實現的者。 24·如申請專利範圍第22項之步搶的微型火控方法,其 中’該步驟(c.l)進一步包含: (c. 1.1)通過一個濾波器的手段,計算當前.目標的位置和速 度; 15 (c·1·2)利用該當前目標的位置和度及未來目標位置,計算 該子彈的飛行時間; (c.l,3)利用該子彈飛行時間估計該未來目標位置,並把未 來目標位置反饋給步驟(c.1.2),並計算該提前角者^ 25.如申請專利範圍第24項之步搶的微型火控方法,其 20中,該濾波器是一擴展卡爾曼濾波器,該目標的位置和速 度估汁和糊算法是㈣擴卡爾曼職器實現的者。 26·如申請專利範圍第1S項之步㈣微敎控方法,其 中,步騾(b)進一步包含: (b‘l)激活上述激光测距器和慣性穩定支架平台; •22- 本紙張尺度過用中國國家標準(CNS〉A4規格(21G X 297公楚Τ .l,i —.4· I ----i —V,.、裝-ΙΑ 請先閲讀背面 之注意事項再填寫本頁) 訂· •V. d6 8029 A8 .B8 C8 D8 六、申請專利範圍 15 經濟部智慧財產局員工消費合作社印製 γ )利用從上述激光測距器來的信息和從支架角傳感I來 的角測量,tt算視線率命令; ㈣一)執行純線命令,排斥干擾力矩,⑽通過制該惯性 穩疋支架平台醉段,連續地親轉定該目標於銶十事 光標者。 =‘如申_利_第26項之步㈣麵火控方法,其 中,該步驟(C)進一步包含: ㈣應:用從細轉賴該機距_麵_率測景以 及子彈_道特性,連騎算提爺,以便纏該光學榥 線; (二2)當電子_被使财扣下時,自動麵錄管〆個提 則角’以便跟蹤該目標; (C.3)以由舰平台穩定賴搶管賴子彈,以排斥違動千 擾者。 28. 如申請專利範圍第27項之步搶的微型火控方法,其 中’涵步脉3)是通—雙難餘架和械的主動控制算 法實現的者。 29, 如申請專利範圍第27項之步搶的微型火控方法,其 中’該步驟(c.l)進—步包含: (C. 1)通過-個_器的手段,計算當前目標的位置和速 度; (C·2)利用該當前目標的位置和速度及未來目標位置,計算 該子彈的飛行時間; (c·3)利用該子彈飛行時間估計該未來目標置,把未來目標 -23- 本紙嫉尺度適用中國國家標準(CNS)A4規格(210 X 297公麓) 一黹先fia讀背面之漆意事頊并填商本貫> 裝---- ,^i —----!vi'-·---------^--------------- 經濟部智慧財產局員工消費合作社印製 468029 六、申請專利範圍 位置反饋給步驟(c 2),並計算該提前角者。 3〇.如申請專利範圍第29項之步搶的微型火控方法,其 中’該遽波器是一擴展卡爾曼濾波器,該目標的位置和速 度估計和預測算法是由該展卡爾曼濾波器實現的者。 5 31.如申請專利範圍第19項之步搶的微型火控方法,其 中,該步騾(b)進一步包含; 作· 1)激活該激光測距器和慣性穩定支架平台; 03. 2)利用從上述激光測距器來的信息和從支架傳感器來的 角測董,計算視線率命令; ίο 〇> 3)執行該視線命令,排斥干擾力矩,以便通過控制該慣 性穩定支架平台的手段,連續地跟蹤和定該目標於該十字 光標者。 ^ 32_如申請專利範圍第31項之步搶的微型火控方法,其 中,該步騾(c)進一步包含: 15 (c,U應用從該測距器來的該視線距離和距離變化率測量以 及子彈的彈道特性,連續計算提前角,以便調整該學視 線; (c.2)當電子板機被使用者扣下時,自動轉利該搶管—個前 角’以便跟蹤該目標·, 20 (c.3)以由慣性平台穩定的該搶管發射子彈,以排斥運動干 擾者。 33.如申請專利範圍第32項之步搶的微型火控方法,其 中’該步驟(c.3)是過一雙軸機械框架和相應的主動控制算 法實現的者。 •24· 本紙張尺度適用中國圉家標準(CNS)A4規格(210 X 297公釐) (諝先《讀背面之注意事項再填寫本頁} -ml HI — — 經濟部智慧財產局員工消費合作社印製 4680296. Scope of Patent Application 15 Intellectual Property of the Ministry of Economic Affairs] Employees pay the cooperatives to print the amount of miscellaneous front angles for the outline of the platform; From the gas phase Si method, the advance angle is received from the platform control algorithm. The calculation module receives the line-of-sight command in order to obtain a data for the top 10 million New sickle. The surface fire control system for step M of the patent scope of the application, wherein the advance angle calculation module further includes:-the tester's secret and bridging device and the distance change rate to generate the current Target position and speed; A ballistic calculation module 'Profit current speed and position of the current target and the target count from the sub-county to calculate the child's limp time;-Relative motion profile, the estimated target position, And feedback the future target position to the trajectory calculation process module, and calculate the advance angle. 16. The miniature fire control system as claimed in step 15 of the scope of patent application, wherein the filter is an extended Kalman filter. Π.—A step fire grab mini fire control method, including a grab pipe fixed to an inertial stabilization platform, which is installed on the step fire grab base. The micro fire control method includes the following steps: (a) Started by the user Obtain the target; (b) track the target by the user's fire control unit in the ring method; (c) fire the fire control commander through the user's fire control unit in the ring. 18. The micro-fire control method as described in the step π of the scope of patent application, wherein step (a) further includes steps (: (al) when the operation is started, lock the two-axis stable bracket and grab the pipe; ---- -------- Install -i C, please read the precautions on the back before filling this page} -20- National National Standards (CNSM4 specifications (210 X 297 mm A8 B8 C8 468029) 6. Scope of patent application 0.2 ) The operator_this step is grabbed 'to obtain the target person on the county vision_cross cursor. I9 · Miniature fire control method such as step IS of the scope of patent application, in which the target is tracked by successive performances'by the inertial stabilization platform Locked on the cross 5 cursor ', its platform is a two-axis bracket platform, and the azimuth and altitude angular rate commands are generated from the sensitivity of the electric torque device and the inertial rate gyro, so the operator's movement is isolated. The target is locked at The cursor is on the cursor, so the operator can adjust the target to the cross cursor person by inputting motion to the gun grave under stable conditions. 10 20. Miniature fire control method such as step 19 of the scope of patent application Where 'take advantage of complex fire control Method, based on the line-of-sight angle, the angular rate measurement from the rangefinder 'and the ballistic characteristics of the bullet, continuously calculate the advance angle, and the optical line of sight'. The platform is stable and automatically rotates-this corner, and excludes 15 to disturb the sportsman. 21 'As a miniature fire control method for the rifle in the 17th scope of the patent application, step (b) further includes: ( b. 1) Activate the above-mentioned laser rangefinder and anger-stabilized support platform; (b_ 2) Rely on the above-mentioned laser device and rely on the angle measurement from the support sensor to calculate the line rate command; 03.3) Execute this The line of sight command repels the dry moment, so as to continuously track and lock the target on the cross cursor by means of controlling the inertial stabilization bracket platform. 22_ If the miniature fire control method in step 21 of the scope of patent application is applied, its paper size is 21 · Chinese National Standard (CMS) A4 (210 X 297 mm) {Please read the precautions on the back before filling This page) Loading: Printed by the Employees 'Cooperatives of the Intellectual Property Bureau of the Ministry of Economic Affairs 468029 Printed by the Employees' Cooperatives of the Intellectual Property Bureau of the Ministry of Economic Affairs g___ 6. In the scope of applying for a patent, the step (C) further includes: (C. 1) Application The line of sight distance change rate measurement from the rangefinder and the ballistic characteristics of the bullet continuously calculate the advance angle in order to adjust the optical line of sight; (c.2) When the electronic board machine is buckled by the user, the pipe grab is automatically turned— 5 'ahead of time in order to track the target; (c.3) firing bullets with the grab tube stabilized by the inertial platform to repel motion interferers. 23. A miniature fire control method as claimed in step π of the scope of patent application, wherein 'this step (c.3) is implemented by a two-axis mechanical frame and a corresponding active control algorithm. 24. A miniature fire control method as claimed in step 22 of the scope of patent application, wherein 'this step (cl) further includes: (c. 1.1) calculating the current target position and velocity by means of a filter; 15 (c · 1 · 2) use the position and degree of the current target and future target position to calculate the flight time of the bullet; (cl, 3) use the bullet flight time to estimate the future target position, and feedback the future target position to Step (c.1.2), and calculate the advance angle ^ 25. As in the miniature fire control method of step 24 of the scope of application for patent, in 20, the filter is an extended Kalman filter, the target's The position and speed estimation algorithm is the implementer of the extended Kalman server implementation. 26. Step 1 micro-control method according to item 1S of the scope of patent application, wherein step (b) further includes: (b'l) activating the above-mentioned laser rangefinder and inertial stabilization bracket platform; • 22- this paper size Used Chinese National Standard (CNS> A4 Specification (21G X 297 Gong Chu T.l, i —.4 · I ---- i —V,., Installed-ΙΑ) Please read the precautions on the back before filling this page ) Order · • V. d6 8029 A8 .B8 C8 D8 VI. Application scope of patents 15 Printed by the Consumer Cooperatives of the Intellectual Property Bureau of the Ministry of Economic Affairs γ) Use the information from the above laser rangefinder and the angle sensor I from the bracket angle Angular measurement, tt calculates the line of sight command; (1) Execute pure line command, repel the interference torque, and stabilize the drunk section of the stent platform by controlling the inertia, and continually turn the target to the cursor of the ten events. = 'Rushen_Li_The 26th step of the surface fire control method, wherein step (C) further includes: ㈣ should: use the fine-to-fine aircraft distance _ surface _ rate surveying and bullet _ track characteristics Lianqi counts Tiye so as to tangle the optical reel; (2) 2) When the electronic _ is deducted, the automatic recording recorder will set a rule angle to track the target; (C.3) Reason The platform stability depends on grabbing and controlling bullets to repel the perpetrators. 28. For example, the miniature fire control method of step 27 in the scope of the patent application, in which ‘Hanmai 3’ is the one who implements the active control algorithm of Tong-Dual Residual Racks and Arms. 29. For example, the miniature fire control method of step 27 in the scope of patent application, wherein the step (cl) further includes: (C. 1) the current target position and speed are calculated by means of a device. (C · 2) Calculate the time of flight of the bullet using the position and speed of the current target and the position of the future target; (c · 3) Use the time of flight of the bullet to estimate the future target position, and set the future target -23- Dimensions are applicable to China National Standard (CNS) A4 specifications (210 X 297 feet). First read fia's lacquer on the back and fill in the original text of the manufacturer.> -------- ^ i ------! Vi '-· --------- ^ --------------- Printed by the Consumer Cooperatives of the Intellectual Property Bureau of the Ministry of Economic Affairs 468029 6. The position of the scope of patent application is fed back to step (c 2), and calculate the advance angle. 30. A miniature fire control method as described in step 29 of the scope of the patent application, wherein the wave filter is an extended Kalman filter, and the target position and speed estimation and prediction algorithms are performed by the Kalman filter. Implementer. 5 31. The miniature fire control method according to step 19 of the scope of patent application, wherein the step (b) further includes: 1) activating the laser rangefinder and inertial stabilization bracket platform; 03. 2) Calculate the line-of-sight command using the information from the laser rangefinder and the angle measurement from the bracket sensor; 3) Execute the line-of-sight command to repel interference moments in order to control the inertia to stabilize the bracket platform , Continuously track and target the target at the cross cursor. ^ 32_ The miniature fire control method according to step 31 of the scope of patent application, wherein step (c) further includes: 15 (c, U applies the line-of-sight distance and distance change rate from the rangefinder Measure and the ballistic characteristics of the bullet, continuously calculate the advance angle in order to adjust the line of sight; (c.2) When the electronic board is buckled by the user, automatically take advantage of the pipe grab-a front angle 'in order to track the target · 20 (c.3) The bullet is fired by the grabbing tube stabilized by the inertial platform to repel motion interferers. 33. A miniature fire control method such as step 32 in the scope of patent application, wherein 'this step (c. 3) Those who have implemented a two-axis mechanical frame and the corresponding active control algorithm. • 24 · This paper size is applicable to the Chinese Standard (CNS) A4 (210 X 297 mm) (first read the note on the back Please fill in this page again for the matter} -ml HI — — Printed by the Consumer Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs 468029 34.如申請專利範圍第32項之步搶的微型火控方法,其 中’該步驟(c.l)進一步包含: (c.1.1)通過一個濾波器的手段,計算當前目標的位置和速 度; 5 (cX2)利用該當前目標的位置和速度及未來目標位置,計 算該子彈的飛行時間; (c.1.3)利用該子彈飛行時間估計該未來目標位置,並指未 來目標位置反饋給步膝(c.l·2),並計算該提前角者。 35·如申請專利範菌第34項之步搶的微型火控方法,其 1〇中,該濾波器是一擴展卡爾曼濾波器,該目標的位置和速 度估計和翻算法是自該驗卡懸難器實現的者 36·如申請專利範固第19項之步搶的微型火控方法,其 中,步騾(b)進一步包含: (b.l)激活上述激光測距器和慣性穩定支架平台; I5 (b.2)利醒上述激光測距來的信息和支架角傳感器來的角 測董,計算視線率命令; ㈣執行娜線命令’排斥干擾力矩,⑽通過控制該慣 性穩定古架平台的手段,連續地跟蹤和定該目標於該十字 光標者。 20 37.如申請專利範圍第36項之步搶的微型火控方法,其 中,步驟(c)進一步包含: (c.l)應用該測距器來的該視線距離和距雔變化率測量以及 子彈的彈道特性’連續計算提前角,以便調整該光視線; (c.2)當電子板驗用者扣科,自㈣動讎管—個提前 •25·34. A miniature fire control method as described in step 32 of the scope of patent application, wherein 'this step (cl) further includes: (c.1.1) calculating the position and velocity of the current target by means of a filter; 5 ( cX2) Calculate the time of flight of the bullet using the position and velocity of the current target and the position of the future target; (c.1.3) Estimate the position of the future target using the time of flight of the bullet, and refer to the future target position feedback to the step knee (cl. 2), and calculate the advance angle. 35. For example, in the micro-fire control method of step 34 of the patent application, in 10, the filter is an extended Kalman filter, and the position and velocity estimation and translation algorithms of the target are from the card inspection. Those who realize the suspension device 36. For example, the miniature fire control method of step 19 of the patent application Fangu, wherein step (b) further includes: (bl) activating the above-mentioned laser rangefinder and inertial stabilization bracket platform; I5 (b.2) Use the information from the above laser ranging and the angle measurement from the bracket angle sensor to calculate the line-of-sight command; ㈣ execute the Na line command 'reject interference torque, and 稳定 stabilize the ancient shelf platform by controlling the inertia Means to continuously track and target the cross cursor. 20 37. The miniature fire control method according to step 36 of the scope of patent application, wherein step (c) further includes: (cl) the measurement of the line-of-sight distance and range 雔 change rate from the rangefinder and the bullet's Ballistic characteristics' continuously calculate the advance angle in order to adjust the line of sight; (c.2) When the electronic board inspector deducts the branch, it will automatically move the tube—a advance • 25 · 本紙張尺度適用中國國家標準規格⑵ο X 297公爱) 468029This paper size applies to Chinese national standard specifications ⑵ο X 297 (public love) 468029 六、申請專利範圍 角’以便跟蹤該目標; (c.3)以由慣性平台穩定的歸管發射子彈,以排斥運動千 擾者。 ,申請專利範圍第37項之步搶的微型火控方法,其 5 ’鮮峰.3)是賴—雙職框架純賴主動控制算 法實現的者。 39.如申請專利範圍第37項之步_微型火控方法,其 中’該步驟(c.l)進一步包含: (c·1.1)通過—個濾波器的手段,計算當前目標的位置和速 !〇度; (c.n)利用該當前目標的位置和速度及未來目標位置,計 算該子彈的飛行時間; (α1·3)利用該子彈飛行時間估計該未來目標位置,並把未 來目標位置反饋給步騾(c丄2),並計算該提前角者。 15 4〇·如申請專利範圍第39項之步槍的微型火控方法,其 中’該遽波器是一擴展卡爾曼濾波器,該目標的位置和速 度估計和預測算法是由該擴展卡爾曼濾波器實現的者。 t猜先閲讀背面之涑慾事頊存瑱寫本寅) 装 . ^ 經濟部智慧財產局員工消費合作社印製 6- 本紙張尺度適用中國國家標準(CNS)A4規袼(210 κ 297公釐)Sixth, the scope of patent application angle ′ in order to track the target; (c.3) The bullet is fired with the stable management of the inertial platform to repel the moving disturbance. The mini fire control method in step 37 of the scope of patent application, 5 'Xianfeng. 3) is the one who relies on the active control algorithm to implement the dual-professional framework. 39. Step 37 of the scope of patent application_Miniature fire control method, wherein 'this step (cl) further includes: (c · 1.1) Calculate the position and speed of the current target by means of a filter! (cn) Calculate the time of flight of the bullet using the position and speed of the current target and the position of the future target; (α1 · 3) Use the time of flight of the bullet to estimate the position of the future target, and feed back the position of the target to Bu Yi ( c 丄 2), and calculate the advance angle. 15 40. If the miniature fire control method of the rifle in the 39th scope of the patent application, wherein the wave filter is an extended Kalman filter, the position and speed estimation and prediction algorithm of the target is made by the extended Kalman filter Implementer. t Guess first read the "What's on the back" (preserved and written). ^ Printed by the Consumer Cooperatives of the Intellectual Property Bureau of the Ministry of Economic Affairs 6- This paper size applies the Chinese National Standard (CNS) A4 Regulation (210 κ 297 mm)
TW89121768A 2000-09-18 2000-10-13 Micro fire control method and system thereof for rifles TW468029B (en)

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CN102269541B (en) * 2011-08-16 2013-07-03 中国兵器工业第二〇五研究所 Dynamic sighting device for gunner sighting lens of self-propelled anti-aircraft gun
CN102331211A (en) * 2011-09-30 2012-01-25 西安华科光电有限公司 Intelligent adjusting platform for fire control trajectory
CN102419137A (en) * 2011-12-01 2012-04-18 西安华科光电有限公司 Automatic fire control trajectory regulation platform adopting laser for auxiliary lighting
CN103808203B (en) * 2014-02-24 2015-08-19 浙江工业大学之江学院 Based on shooting target trajectory detection method target aiming at cursor and gun attitude detection
CN104848745B (en) * 2015-05-25 2017-11-17 南通大学 A kind of distant-range high-precision automatic pointing system

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