Systematic Analysis of Complex Dynamic Systems: the Case of the Uss Vincennes
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Fy15 Table of Contents Fy16 Table of Contents
FY15FY16 TABLE OF CONTENTS DOT&E Activity and Oversight FY16 Activity Summary 1 Program Oversight 7 Problem Discovery Affecting OT&E 13 DOD Programs Major Automated Information System (MAIS) Best Practices 23 Defense Agencies Initiative (DAI) 29 Defensive Medical Information Exchange (DMIX) 33 Defense Readiness Reporting System – Strategic (DRRS-S) 37 Department of Defense (DOD) Teleport 41 DOD Healthcare Management System Modernization (DHMSM) 43 F-35 Joint Strike Fighter 47 Global Command and Control System – Joint (GCCS-J) 107 Joint Information Environment (JIE) 111 Joint Warning and Reporting Network (JWARN) 115 Key Management Infrastructure (KMI) Increment 2 117 Next Generation Diagnostic System (NGDS) Increment 1 121 Public Key Infrastructure (PKI) Increment 2 123 Theater Medical Information Program – Joint (TMIP-J) 127 Army Programs Army Network Modernization 131 Network Integration Evaluation (NIE) 135 Abrams M1A2 System Enhancement Program (SEP) Main Battle Tank (MBT) 139 AH-64E Apache 141 Army Integrated Air & Missile Defense (IAMD) 143 Chemical Demilitarization Program – Assembled Chemical Weapons Alternatives (CHEM DEMIL-ACWA) 145 Command Web 147 Distributed Common Ground System – Army (DCGS-A) 149 HELLFIRE Romeo and Longbow 151 Javelin Close Combat Missile System – Medium 153 Joint Light Tactical Vehicle (JLTV) Family of Vehicles (FoV) 155 Joint Tactical Networks (JTN) Joint Enterprise Network Manager (JENM) 157 Logistics Modernization Program (LMP) 161 M109A7 Family of Vehicles (FoV) Paladin Integrated Management (PIM) 165 -
Three Simulation Models of Naval Air Defense
Three Simulation Models of Naval Air Defense LTJG Baris Ozkan, Neil C. Rowe, LT Sharif H. Calfee, and John E. Hiles Institute for Modeling, Virtual Environments, and Simulation (MOVES) and Computer Science Department U.S. Naval Postgraduate School 833 Dyer Road, Monterey, CA 93943 [email protected], [email protected], [email protected], [email protected] ABSTRACT Naval air defense is a critical facility for ship survivability and has been subject of a number of studies. We investigate here three different approaches to modeling it with computer software. One approach focuses on the problems of information processing and communication for the air-defense team, and is good for analyzing its efficiency. Another approach focuses on the inference of the nature of observed tracks, and is based on the novel psychological theory of conceptual blending. A third approach uses an expert-systems approach that can learn from experience and be more substantially automated than the other two approaches. Each approach has its own advantages: The first provides insights for organizing and managing air-defense personnel, the second provides insights into cognitive biases in analysis that should be examined during training, and the third suggests a way to mostly automate the air-defense process to save money. This work suggests the value of multiple simulations of the same process when that process is important to understand. BACKGROUND Naval air warfare is rapid and serious, and is a major focus of the operations of ships (Mairorano, Carr, and Bender, 1996). Air-defense teams of "watchstanders" must train extensively in search, detection, and classification of all aircraft and surface vessels within the operational area of a ship's "battle group" (coordinated group of ships). -
Navy Aegis Ballistic Missile Defense (BMD) Program: Background and Issues for Congress
Navy Aegis Ballistic Missile Defense (BMD) Program: Background and Issues for Congress Updated September 30, 2021 Congressional Research Service https://crsreports.congress.gov RL33745 SUMMARY RL33745 Navy Aegis Ballistic Missile Defense (BMD) September 30, 2021 Program: Background and Issues for Congress Ronald O'Rourke The Aegis ballistic missile defense (BMD) program, which is carried out by the Missile Defense Specialist in Naval Affairs Agency (MDA) and the Navy, gives Navy Aegis cruisers and destroyers a capability for conducting BMD operations. BMD-capable Aegis ships operate in European waters to defend Europe from potential ballistic missile attacks from countries such as Iran, and in in the Western Pacific and the Persian Gulf to provide regional defense against potential ballistic missile attacks from countries such as North Korea and Iran. MDA’s FY2022 budget submission states that “by the end of FY 2022 there will be 48 total BMDS [BMD system] capable ships requiring maintenance support.” The Aegis BMD program is funded mostly through MDA’s budget. The Navy’s budget provides additional funding for BMD-related efforts. MDA’s proposed FY2021 budget requested a total of $1,647.9 million (i.e., about $1.6 billion) in procurement and research and development funding for Aegis BMD efforts, including funding for two Aegis Ashore sites in Poland and Romania. MDA’s budget also includes operations and maintenance (O&M) and military construction (MilCon) funding for the Aegis BMD program. Issues for Congress regarding the Aegis BMD program include the following: whether to approve, reject, or modify MDA’s annual procurement and research and development funding requests for the program; the impact of the COVID-19 pandemic on the execution of Aegis BMD program efforts; what role, if any, the Aegis BMD program should play in defending the U.S. -
The Uss Vincennes Incident
92 HDR 2020, Nr. 2, 92–101. 1st Lt Viola Vincze THE USS VINCENNES INCIDENT A case study involving Autonomous Weapon Systems DOI: 10.35926/HDR.2020.2.6 ABSTRACT: The objective of the paper is to introduce the facts of the USS Vincennes incident in 1988 and examine how the deployment and use of an Autonomous Weapon System has influenced military decision-making in the specific case. As a result of misidentifi- cation of the contact and confusion on board, Vincennes (a Ticonderoga-class guided missile cruiser outfitted with the Aegis Combat System) fired two radar-guided missiles and shot down a civilian airliner from Iranian territorial waters (in Iranian airspace) only minutes after the airliner’s take-off. Not one from the 290 passengers and crew on board survived. Several contradictory articles have been written on the incident from legal, political and scientific vantage points and this article attempts to strip these accounts of the emotional tone and look into the facts in order to establish how personnel and machine interacted during the events that eventually led to the tragedy and how similar incidents involving AWS could be avoided. KEYWORDS: International Law, Law of Armed Conflicts, Autonomous Weapon Systems, case study, scenario fulfilment, responsibility INTRODUCTION Today we can witness a lively, although not always well-informed debate on the deploy- ment of lethal Autonomous Weapon Systems (AWS) during international armed conflicts (IACs). Their supporters and opponents are invoking various arguments regarding their use, but more often than not they tend to focus on the analysis of the Law of Attack1 as contained in the Law of Armed Conflict (LOAC), most notably in Protocol I additional to the 1949 Ge- neva Conventions2 (Additional Protocol I), while paying less attention to the assessment of NATO documents and national military manuals on targeting, although these can be regard ed as the direct translations of the Law of Attack into the language of daily target selection and engagement. -
Winter 2020 Full Issue
Naval War College Review Volume 73 Number 1 Winter 2020 Article 1 2020 Winter 2020 Full Issue The U.S. Naval War College Follow this and additional works at: https://digital-commons.usnwc.edu/nwc-review Recommended Citation Naval War College, The U.S. (2020) "Winter 2020 Full Issue," Naval War College Review: Vol. 73 : No. 1 , Article 1. Available at: https://digital-commons.usnwc.edu/nwc-review/vol73/iss1/1 This Full Issue is brought to you for free and open access by the Journals at U.S. Naval War College Digital Commons. It has been accepted for inclusion in Naval War College Review by an authorized editor of U.S. Naval War College Digital Commons. For more information, please contact [email protected]. Naval War College: Winter 2020 Full Issue Winter 2020 Volume 73, Number 1 Published by U.S. Naval War College Digital Commons, 2020 1 Naval War College Review, Vol. 73 [2020], No. 1, Art. 1 Cover Two modified Standard Missile 2 (SM-2) Block IV interceptors are launched from the guided-missile cruiser USS Lake Erie (CG 70) during a Missile Defense Agency (MDA) test to intercept a short-range ballistic-missile target, conducted on the Pacific Missile Range Facility, west of Hawaii, in 2008. The SM-2 forms part of the Aegis ballistic-missile defense (BMD) program. In “A Double-Edged Sword: Ballistic-Missile Defense and U.S. Alli- ances,” Robert C. Watts IV explores the impact of BMD on America’s relationship with NATO, Japan, and South Korea, finding that the forward-deployed BMD capability that the Navy’s Aegis destroyers provide has served as an important cement to these beneficial alliance relationships. -
American Naval Policy, Strategy, Plans and Operations in the Second Decade of the Twenty- First Century Peter M
American Naval Policy, Strategy, Plans and Operations in the Second Decade of the Twenty- first Century Peter M. Swartz January 2017 Select a caveat DISTRIBUTION STATEMENT A. Approved for public release: distribution unlimited. CNA’s Occasional Paper series is published by CNA, but the opinions expressed are those of the author(s) and do not necessarily reflect the views of CNA or the Department of the Navy. Distribution DISTRIBUTION STATEMENT A. Approved for public release: distribution unlimited. PUBLIC RELEASE. 1/31/2017 Other requests for this document shall be referred to CNA Document Center at [email protected]. Photography Credit: A SM-6 Dual I fired from USS John Paul Jones (DDG 53) during a Dec. 14, 2016 MDA BMD test. MDA Photo. Approved by: January 2017 Eric V. Thompson, Director Center for Strategic Studies This work was performed under Federal Government Contract No. N00014-16-D-5003. Copyright © 2017 CNA Abstract This paper provides a brief overview of U.S. Navy policy, strategy, plans and operations. It discusses some basic fundamentals and the Navy’s three major operational activities: peacetime engagement, crisis response, and wartime combat. It concludes with a general discussion of U.S. naval forces. It was originally written as a contribution to an international conference on maritime strategy and security, and originally published as a chapter in a Routledge handbook in 2015. The author is a longtime contributor to, advisor on, and observer of US Navy strategy and policy, and the paper represents his personal but well-informed views. The paper was written while the Navy (and Marine Corps and Coast Guard) were revising their tri- service strategy document A Cooperative Strategy for 21st Century Seapower, finally signed and published in March 2015, and includes suggestions made by the author to the drafters during that time. -
Uss "Vincennes"
S. Hao, 100-1085 INVESTIGATION IfTO THE DOWNING OF AN IRANIAN AIRLINER BY THE U.S.S. "VINCENNES" HEARING BEFORE THE COMMITTEE ON ARMED SERVICES UNITED STATES SENATE ONE HUNDREDTH CONGRESS SECOND SESSION SEPTEMBER 8, 1988 Printed for the use of the Committee on Armed Services U.S. GOVERNMENT PRINTING OFFICE 90-853 WASHINGTON : 1989 For sale by the Superintendent of Documents, Congressional Sales Office U.S. Government Printing Office, Washington, DC 20402 03o -" COMMITTEE ON ARMED SERVICES SAM NUNN, Georgia, Chairman JOHN C. STENNIS, Mississippi JOHN W. WARNER, Virginia J. JAMES EXON, Nebraska STROM THURMOND, South Carolina CARL LEVIN, Michigan GORDON J. HUMPHREY, New Hampshire P)WARD M. KENNEDY, Massachusetts WILLIAM S. COHEN, Maine JEFF BINGAMAN, New Mexico DAN QUAYLE, Indiana ALAN J. DIXON, Illinois PETE WILSON, California JOHN GLENN, Ohio PHIL GRAMM, Texas ALBERT GORE, JR., Tennessee STEVEN D. SYMMS, Idaho TIMOTHY E. WIRTH, Colorado JOHN McCAIN, Arizona RICHARD C. SHELBY, Alabama ARNOLD L. PuNARO, Staff Director CAu M. SMrm, Staff Director for the Minority CHRISTINS COWART DAUTH, Chief Clerk (II) CONTENTS CHRONOLOGICAL LIST OF WITNESSES Page Fogarty, Rear Adm. William M., USN, Director of Policy and Plans, U.S. Central Command, and Head of the Investigation Team accompanied by Capt. George N. Gee, USN, Director, Surface Combat Systems Division, ice of the Chief of Naval Operations and Capt. Richard D. DeBobes, Legal Adviser and Legislative Assistant to the Chairman of the Joint Chiefs of S taff . .......................................................................................................................... 4 Kelly, Rear Adm. Robert J., USN, Vice Director for Operations, Joint Staff ..... 17 (III) INVESTIGATION INTO THE DOWNING OF AN IRANIAN AIRLINER BY THE U.S.S. -
Overwhelmed by Technology: How Did User Interface Failures on Board the USS Vincennes Lead to 290 Dead?
Overwhelmed by Technology: How did user interface failures on board the USS Vincennes lead to 290 dead? Luke Swartz Background On July 3, 1988, the 290 passengers and crew of Iran Air Flight 655 were seemingly distant from the bitter and prolonged Iran-Iraq war. Many of the passengers were ultimately bound for Mecca, making their sacred pilgrimage as prescribed in the Koran. However, at 10:24 AM, seven minutes after the Airbus took off from Bandar Abbas Airport for Dubai in the United Arab Emirates, the United States Navy guided missile cruiser Vincennes fired two missiles at the plane, destroying the hapless target and its civilian occupants with horrific precision. What Went Wrong? Immediately after the tragedy, the US quickly blamed Iran for letting the plane fly over the combat situation below; then-Vice President Bush explained to the UN Security Council that the Vincennes “acted in self-defense,” thinking that Flight 655, after failing to respond to seven warnings, was “an Iranian military aircraft…approaching with hostile intentions.” Iran’s foreign minister charged the US with intentionally downing the plane, adding, “This was a premeditated act of aggression against the integrity of Tehran…a massacre.” While few objective observers think that the Vincennes’ action was intentional, and fewer still believe that its shooting down the civilian airliner was correct, numerous experts have debated what went wrong that fateful day. Many theories deal with aspects of the situation and the key players both on the Vincennes and in the cockpit of Flight 655. Failure to Respond? We may never know why Flight 655 failed to respond to the Vincennes’ repeated warnings, as its “black box” flight recorder could not be recovered. -
Overview of Platforms and Combat Systems
W. G. Bath Overview of Platforms and Combat Systems William G. Bath ABSTRACT Air and missile defense is a complex process involving the coordinated operation of equipment and computer programs. The most effective defense generally is multiple layers of defense using different technologies in each layer such as long-range hard-kill, followed by hard-kill area defense, followed by both hard-kill and soft-kill (electronic warfare) self-defense. A combat system must merge, fuse, and de-conflict many sources of sensor data to produce a single usable track picture for decision-making. Throughout, sensors are controlled and sensor resource use is man- aged to meet the overall defense needs. As technical direction agent and technical adviser for many of the combat system elements, the Johns Hopkins University Applied Physics Laboratory (APL) performs the systems engineering, analysis, and experimentation that helps the Navy select the most combat system capability at an affordable cost. INTRODUCTION Most Navy warships have combat systems capable of in overall air and missile defense capability shown in air and missile defense. Those combat systems are well Figure 1. described by the “detect–control–engage” paradigm; Aegis destroyers and cruisers are the Navy’s most that is, the components of the combat system can be capable air defense units because of their long-range, notionally grouped as follows: multifunction phased-array radars; their inventory of • Detect components that find and track air and many different anti-air warfare, ballistic missile defense, missile targets and electronic warfare weapons; and their complex control processes for processing sensor data, making • Control components that identify the targets and engagement decisions, and controlling those weapons. -
Navy CG(X) Cruiser Program: Background for Congress
Navy CG(X) Cruiser Program: Background for Congress Updated January 13, 2011 Congressional Research Service https://crsreports.congress.gov RL34179 Navy CG(X) Cruiser Program: Background for Congress Summary The Navy’s FY2011 budget proposed canceling the CG(X) program as unaffordable and instead building an improved version of the Arleigh Burke (DDG-51) class Aegis destroyer called the Flight III version. This report provides background information on the CG(X) program as it existed prior to its proposed cancellation. For further discussion of the proposal to build Flight III DDG-51s in lieu of CG(X)s, see CRS Report RL32109, Navy DDG-51 and DDG-1000 Destroyer Programs: Background and Issues for Congress. Congressional Research Service Navy CG(X) Cruiser Program: Background for Congress Contents Introduction ..................................................................................................................................... 1 Background ..................................................................................................................................... 1 CG(X) Cruiser Program Prior to Proposed Cancellation .......................................................... 1 Announcement of Program ................................................................................................. 1 Replacement for CG-47s ..................................................................................................... 2 Planned Procurement Schedule .......................................................................................... -
What Can SPY-7 Radar Do for You?
What Can SPY-7 Radar Do for You? The AN/SPY-7 radar is the world’s latest technology radar offering the most capability and the most affordable price. It is a modular and scalable software defined digital solid state radar that can pace the evolving threats. Integrated with the Aegis Weapon System, it will provide advanced technology for Aegis Ship and Ashore programs Superior Radar Capabilities International Protection • Has the Ability to Detect, Track, and Engage • Royal Canadian Navy: Canadian Surface Sophisticated Ballistic Missile and Advanced Air Threats Combatant Program • Engages Multiple Targets Simultaneously with Proven • Spanish Navy: F-110 Frigate Program Interceptors • United States Government • Modular and Scalable Software Defined Digital Solid State Radar Most Compatible Proven Performance • Interoperable with Other Radars and Platforms • Solid State Solution Meets the Need Now • Fully compatible with the Aegis Combat System • Provides the Most Technically Advanced Capabilities Warfighters Require • World’s Latest Technology Selected Worldwide Aegis has been trusted for 50 years and Lockheed Martin has a trusted history of producing, integrating, and delivering radars and combat systems. Lockheed Martin and the Aegis Combat System continue to keep pace with evolving integrated air and missile threats, introducing new capabilities to create the latest generation of advanced solid state technologies, integrated with the Aegis system, to provide world-class defense and ensure future safety and security. https://www.lockheedmartin.com/en-us/ This Document Does Not Contain Export Controlled Data. products/aegis-combat-system.html © 2020 Lockheed Martin Corporation. All Rights Reserved. (6/2020). -
Battle Group Antiair Warfare Coordination
CHESTER C. PHILLIPS and EDWARD C. PRETTYMAN BATTLE GROUP ANTIAIR WARFARE COORDINATION Considering the demands placed on Naval Battle Group defense by the density and speed of poten tial air attacks, the coordination of antiair warfare ships and aircraft - now possible through the AEGIS Combat System - becomes essential to the full exploitation of a Battle Group's capability for survival. INTRODUCTION Table 1 Throughout the history of naval warfare, changes in offensive tactics and weaponry have required cor BENEFITS OF THE BGAA WC PROGRAM responding changes in defensive tactics and technol Coordinated Battle Control ogy. To employ new weapons or to counter new Large-screen Battle Group tactical display threats, techniques of coordinating military opera Coordination by information exchange tions must change to keep pace with equipment capa Aircraft! missile coordination bilities. New coordination techniques are essential to Automated force response survival of Naval Battle Groups in the combat envi ronment of the 1980's, an environment characterized Accurate Real-Time Data Exchange by a potential for large numbers of rapidly evolving, Continuous automatic gridlock capability simultaneous missile attacks. The development of Improved data for non-AEGIS combatants such an antiair warfare coordination capability is AEGIS data sharing treated in this article. BATTLE GROUP ANTIAIR WARFARE Improved Antiair Warfare Effectiveness Improved application of aircraft COORDINATION PROGRAM Improved reaction time for non-AEGIS ships The Battle Group Antiair Warfare Coordination Reduction of missile expenditure per target kill (BGAAWC) Program has evolved as an integral part Improved utilization of AEGIS in Battle Group of the AEGIS development program. Its objective is operations to improve the overall antiair warfare effectiveness of a Battle Group by building on the capabilities of AEGIS and developing its capability to coordinate The Battle Group Antiair Warfare coordination (BGAA wC) Pro other Battle Group weapons.