ARCHIVED REPORT. Marine Technology - Archived 7/2005

Similar documents
RDT&E BUDGET ITEM JUSTIFICATION SHEET (R-2 Exhibit)

UNCLASSIFIED UNCLASSIFIED

ARCHIVED REPORT. Distributed Information Systems (DIS) - Archived 09/2003

Ultra Electronics Integrated Sonar Suite

SURTASS Twinline ABSTRACT INTRODUCTION

UNCLASSIFIED. UNCLASSIFIED Navy Page 1 of 10 R-1 Line #12

UNCLASSIFIED UNCLASSIFIED

UNCLASSIFIED. FY 2016 Base FY 2016 OCO

ARCHIVED REPORT. For data and forecasts on current programs please visit or call

UNCLASSIFIED FY 2009 RDT&E,N BUDGET ITEM JUSTIFICATION SHEET DATE: February 2008 Exhibit R-2

UNCLASSIFIED R-1 ITEM NOMENCLATURE FY 2013 OCO

Active Towed Array Sonar Outstanding Over-The-Horizon Surveillance

ARCHIVED REPORT. Falcon II Tactical Radio - Archived 10/07

UNCLASSIFIED )UNCLASSIFIED

ARCHIVED REPORT. Jaguar/Caracal/Panther - Archived 6/2005

Ship Signatures Department (Code 70) Paul Luehr, Acting Department Head

Unmanned Maritime Vehicle (UMV) Test & Evaluation Conference

Partnering: Labs and Small Businesses

Department Overview Brief

UNCLASSIFIED INTRODUCTION TO THE THEME: AIRBORNE ANTI-SUBMARINE WARFARE

Understanding DARPA - How to be Successful - Peter J. Delfyett CREOL, The College of Optics and Photonics

Engineering Solutions

TACTICAL DATA LINK FROM LINK 1 TO LINK 22

Coastal Benthic Optical Properties Fluorescence Imaging Laser Line Scan Sensor

Science and Technology for Naval Warfare,

UNCLASSIFIED R-1 ITEM NOMENCLATURE. FY 2014 FY 2014 OCO ## Total FY 2015 FY 2016 FY 2017 FY 2018

Submarine Laser Communications - Archived 09/2000

Lesson 17: Science and Technology in the Acquisition Process

COMPANY RESTRICTED NOT EXPORT CONTROLLED NOT CLASSIFIED Your Name Document number Issue X FIGHTING THE BATTLE. Thomas Kloos, Björn Bengtsson

Early Design Naval Systems of Systems Architectures Evaluation

Rapid Reaction Technology Office (RRTO) Overview

ONR MIW Technology Efforts Using UUV s and Autonomy November 17, 2016

Dr. Tony Tether Director

ASO 713/723 Hull-Mounted Active Sonar

Stiletto. Maritime Demonstration Program C-UUV Capability Demonstration

Accurate Automation Corporation. developing emerging technologies

Explosive Ordnance Disposal/ Low-Intensity Conflict. Improvised Explosive Device Defeat

CMRE La Spezia, Italy

Impact of Technology on Future Defense. F. L. Fernandez

April 10, Develop and demonstrate technologies needed to remotely detect the early stages of a proliferant nation=s nuclear weapons program.

UNCLASSIFIED. UNCLASSIFIED Office of Secretary Of Defense Page 1 of 5 R-1 Line #102

Optimal Exploitation of 3D Electro-Optic Identification Sensors for Mine Countermeasures

RDT&E BUDGET ITEM JUSTIFICATION SHEET (R-2 Exhibit) February 2002

» KHINE LATT: At the last DARPA Tech, I stated in my speech: Maritime supremacy is still the most effective means to project power.

From Torpedo Fire Control to Sonar at Librascope by Dave Ghen

UNCLASSIFIED. UNCLASSIFIED R-1 Line Item #13 Page 1 of 11

2018 Research Campaign Descriptions Additional Information Can Be Found at

Technology Roadmapping. Lesson 3

Maritime Autonomy. Reducing the Risk in a High-Risk Program. David Antanitus. A Test/Surrogate Vessel. Photo provided by Leidos.

Orientation. Status. Available for sale. Application. terminal area. Contractors

HMS-12M. HMS-12M Broadband Hull-Mounted Minehunting Sonar ATLAS ELEKTRONIK. ... a sound decision. Mine Warfare System

ARCHIVED REPORT. For data and forecasts on current programs please visit or call

ARCHIVED REPORT. For data and forecasts on current programs please visit or call

ARMY RDT&E BUDGET ITEM JUSTIFICATION (R2 Exhibit)

SAAB SEA POWER CAPABILITIES FOR MALAYSIA AND APAC LIMA Robert Hewson Vice President Head of Communications, Saab Asia Pacific

ARCHIVED REPORT. Multiband Multimode Radio (SPEAKEASY) Archived 09/2002

Ground Robotics Capability Conference and Exhibit. Mr. George Solhan Office of Naval Research Code March 2010

Networked Targeting Technology

EXHIBIT R-2, RDT&E BUDGET ITEM JUSTIFICATION N/SHIP CONCEPT ADVANCED DESIGN

UNCLASSIFIED FY 2016 OCO. FY 2016 Base

ACTD LASER LINE SCAN SYSTEM

ARCHIVED REPORT. For data and forecasts on current programs please visit or call

ONR BAA Affordable Electronically Scanned Array Technology for Next Generation Naval Platforms. Questions & Answers 3/21/07

Future of New Capabilities

NEW ROLES FOR UUVS IN INTELLIGENCE, SURVEILLANCE, AND RECONNAISSANCE

Acoustic Communications (ACOMMS) ATD

A Multi-Use Low-Cost, Integrated, Conductivity/Temperature Sensor

DoD Research and Engineering Enterprise

The RCAF S&T program and the All Domain

DoD Research and Engineering

NAVY SATELLITE COMMUNICATIONS

The Application of Wargaming to Education in Naval Design & Survivability

SEA1000 Industry Briefing

ARCHIVED REPORT. Navy EHF SATCOM Program (NESP) - Archived 09/2003

The Naval Undersea Warfare Center Division Newport

Army Acoustics Needs

Engineered Resilient Systems DoD Science and Technology Priority

ARCHIVED REPORT. APQ-164(V) - Archived 11/97. Outlook. Orientation. No Production Forecast. AN Equipment Forecast

ARCHIVED REPORT. ELF Submarine Communications - Archived 04/2003

WHOLE LIFE WARSHIP CAPABILITY MANAGEMENT

Science & Technology for the Objective Force

Future Technology Drivers and Creating Innovative Technology Cooperation

LONG TERM GOALS OBJECTIVES

SECNAV/CNO Chair and SECNAVCNO Scholar of OCEANOGRAPHIC SCIENCES

Seeds of Technological Change

ARCHIVED REPORT. Type 996/AWS-9 - Archived 7/2005

Technology Insertion: A Way Ahead

UNCLASSIFIED. FY 2016 Base FY 2016 OCO

Autonomous Underwater Vehicles

STRATEGIC DEFENSE INITIATIVE ORGANIZATION (SDIO) SMALL BUSINESS INNOVATION RESEARCH PROGRAM Submitting Proposals

UNCLASSIFIED FY 2016 OCO. FY 2016 Base

NAVAL AVIATION Carrier Borne AEW&C

ARCHIVED REPORT. ULQ-19(V)/RACJAM - Archived 6/97

DoD Research and Engineering Enterprise

The C303/S is an anti-torpedo countermeasure system for submarines, designed to counter attacks of acoustic homing torpedoes, active/passive,

P-8 8Programs. Chuck Dabundo. Rob Elliott. June 8, Boeing Vice President, P-8 Program Manager. Boeing BCA P-8 Program Manager MEDIA TOUR

Maritime S&T Programme

DISTRIBUTION STATEMENT A. Approved for public release; distribution is unlimited.

ACOUSTIC RESEARCH FOR PORT PROTECTION AT THE STEVENS MARITIME SECURITY LABORATORY

Concordia University Department of Computer Science and Software Engineering. SOEN Software Process Fall Section H

Transcription:

Land & Sea-Based Electronics Forecast ARCHIVED REPORT For data and forecasts on current programs please visit www.forecastinternational.com or call +1 203.426.0800 Marine Technology - Archived 7/2005 Outlook Program ends in FY2004 Efforts transferred to PE#0603766E Project NET-02 New emphasis being placed on network-centric warfare This report will be archived next year, July 2005 16 14 12 10 8 6 4 2 Forecast Funding Levels 2004-2013 Values (In millions of U.S. FY04 millions) 0 2004 2005 2006 2007 2008 2009 2010 2011 2012 2013 13.751 0 0 0 0 0 0 0 0 0 Marine Technology R&D Years Description. The Marine Technology program was a U.S. Defense Advanced Research Projects Agency (DARPA) effort that identified, developed, and rapidly matured critical advanced technologies and system concepts for maritime applications; i.e., U.S. Navy submarines in the littoral warfare arena. Efforts have been transferred to other programs in favor of network centric warfare development. Sponsor U.S. Defense Advanced Research Projects Agency (DARPA) Special Projects Office 3701 N Fairfax Drive Arlington, VA 22203-1714 USA Tel: +1 703 248 1500 Fax: +1 703 516 7360 Web site: http://www.darpa.mil Orientation Status. Program transferred to NET-02 project for more emphasis on network centric warfare. Total Produced. A few prototype models only. Application. Littoral and undersea warfare. Price Range. Not applicable. Contractors BAE Systems North America, Advanced Power Technologies Inc. (APTI), http://www.apti.com, 1250 24 Street SW, Suite 850, Washington, DC 20037 United States, Tel: + 1 (202) 223-8808, RDT+E (Water Hammer Mine Neutralization) Information Systems Laboratories (ISL), ISL Surveillance & Communications R&D, http://www.islinc.com, 8130 Boone Boulevard, Suite 500, Vienna, VA 22182 United States, Tel: + 1 (703) 448-1116, Fax: + 1 (703) 356-3103, Email: ptechau@islinc.com, RDT+E (Buoyant Cable Array Antenna) Design Features. The Marine Technology program sought to identify, develop, and rapidly mature critical Technical Data advanced technologies and system concepts to enable U.S. naval forces to dominate the maritime battlespace,

Marine Technology - Archived 7/2005, Page 2 Land & Sea-Based Electronics Forecast particularly in the littoral arena. It aimed to improve both the power-projection capabilities of the U.S. naval forces (particularly their ability to influence land battles), and their ability to counter threats. The threat from quiet diesel-electric submarines, the worldwide proliferation of advanced submarines and weapons, and the easy availability of modern underwater mines all represent the unique challenges encountered in the maritime arena. These threats necessitated the continued development of affordable methods of enhancing the U.S. Navy s operating capability in the shallow-water arena. However, new threats such as global terrorism, as well as advances in technology, have shifted this program to the bottom of the priority list for now. Advanced Ship Sensor Systems (ASSS). The goal of the ASSS project was to develop innovative sensing and communication technologies that would allow U.S. naval forces to maintain and improve their effectiveness in dangerous tactical operations. This project had three principal objectives: 1) improvement of maritime battlespace awareness through the development of advanced sensors capable of more thoroughly interrogating the surrounding environment; 2) development of advanced communications capabilities for expanded information networking; and 3) exploration of platform system approaches for enhancing survivability. Undersea Littoral Warfare (ULW). The ULW project was responsible for developing the Netted Search, Acquisition, and Targeting (NetSAT) system. NetSAT sought to improve attack performance by exploiting the use of a sonobuoy field during the weapon run in order to identify and locate countermeasures and to mitigate their impact on torpedo operations. The ULW effort also examined: the ability of innovative multidimensional receiver arrays, when coupled with optimal processing approaches, to provide Robust Passive Sonar solutions in shallow water; the use of an unmanned aerial vehicle-based system to detect non-acoustic submarine signatures; and the use of advanced synthetic aperture sonar processing techniques to identify and classify underwater mines at much greater search rates than current systems allow. Water Hammer. The unique Water Hammer project was responsible for concept development of a standoff mine neutralization system consisting of a phased array of shock tubes. The tubes generate, focus, and transport a pressure pulse of sufficient energy (tens of meters) to neutralize the threat. The Water Hammer has the potential for rapid, precise, in-stride lane clearance in deep or shallow water, thus reducing the need for highfidelity detection and classification. Although the initial project focused on mine and obstacle clearance, the Water Hammer also has general utility use as a close-in defense system for ships against multiple classes of subsurface threats. Buoyant Cable Array Antenna (BCAA). Under the BCAA project, focus was on the development of a full duplex link (transmit and receive) for data transfer and communications to and from submarines operating at speed and depth technologies which may be employed to achieve high data-transfer rates while submerged. These include photonic signal and power links, enhanced antenna loading materials, adaptive array calibrations, and enhanced communications protocols. Robust Passive Sonar (RPS). This program was an outgrowth of the successful experiments performed under the ULW effort. It investigated the ability of innovative optimal processing approaches, coupled as appropriate to multi-dimensional receive arrays and external information, to precisely cancel the acoustic interference generated by surface ships. Loki Program. The Loki Program had two major elements: the Vortex Combustor development program and the Loki systems development program. The goals of these two efforts were to develop revolutionary technologies assessed to have high military payoff into functional technology prototypes. Included in these two programs were the development of an energy-dense airdependent underwater power-source as a potential propulsion system for an underwater fighter, and the development of support systems necessary for the operational viability of a future underwater fighter. Such an underwater vehicle would have had the potential to revolutionize military and commercial undersea operations, and the operational agility of maritime operations in the littoral warfare environment.

Land & Sea-Based Electronics Forecast Marine Technology - Archived 7/2005, Page 3 The Buoyant Cable Array Antenna (BCAA) will combine signals from multiple floating interconnected antenna elements to provide high data-rate submarine connectivity Source: U.S. DARPA Variants/Upgrades As this is a technology development effort, variants and upgrades are always in the works. Originally set up to develop the U.S. Navy s Arsenal Ship concept (discontinued in 1997), the Marine Technology program focused on many of the auxiliary projects that were to be part of the Arsenal Ship. In FY97, development of the Netted Search, Acquisition, and Targeting (NetSAT) system for littoral surveillance was initiated. Other work included assessing the prototype design of an acoustic minedetection and classification system for coverage of a large area (10 square nautical miles per hour); the development of space/time adaptive processing techniques and ocean tests to enhance long-range active coherence and the performance of towed arrays; demonstration of a standoff pulse mine-neutralization system; the development of advanced signal detection and processing algorithms to mitigate the effects of torpedo acoustic countermeasures; and the development of a high-resolution synthetic aperture sonar towedarray system for mine detection and classification from high-speed platforms. Development and testing of NetSAT continued through FY98. By the end of FY99, the prototype NetSAT system had been completed and field-tested against a submarine target. Under the Water Hammer project, efforts were Program Review under way to develop explosive underwater energyprojection technology for mine neutralization, including fabrication and component testing for the 4x4 source array test article. The Buoyant Cable Array Antenna (BCAA) effort was conducting comparative testing of DARPA-generated BCAA concepts and Navygenerated single element approaches in the ultra-highfrequency (UHF) band, as well as assessing the cost/performance tradeoffs of differing approaches. Program activity for FY00 focused on updating and completing development of the prototype NetSAT system, and conducting a follow-on technical demonstration that emphasized endgame coordination with existing systems for final target updates. Under the BCAA project, component technology risk-reduction and maturation efforts were under way, along with the design and development of a full duplex (transmit/ receive) submarine prototype antenna, and the conduct of a Preliminary Design Review. Under the Water Hammer effort, the 4x4 source array and test subsystem were completed. During FY01, the final NetSAT operation demonstration was conducted, followed by the transition of NetSAT technologies to the Navy. Synthetic aperture

Marine Technology - Archived 7/2005, Page 4 Land & Sea-Based Electronics Forecast sonar data-collection exercises were also conducted. The BCAA effort focused on designing and fabricating a prototype antenna, as well as assessing the feasibility of remotely operated antennas for increasing submarine stealth while providing around-the-clock two-way communications. Additionally, a new effort was added, the Future Submarine Payloads program. It studies the storage and launch of existing payloads in an underwater environment. Conceptual designs for the underwater launch and recovery of submarine payloads were initiated during the year. By the end of FY02, the BCAA prototype completed atsea technical validation, as well as an operational demonstration from a submarine. BCAA technology was transitioned to the Navy for follow-on development. At the same time, high-quality, mobile, multiline-array acoustic and ancillary data were collected at sea as part of the Robust Passive Sonar (RPS) effort. Additionally, end-to-end prototype signal-processing architecture and algorithms were developed. The Vortex Combustor development program began in earnest in FY02. A detailed analysis was conducted, test units were fabricated, a supporting fuel feed system was developed, start and restart systems were developed, and supporting engineering studies were conducted. Funding U.S. FUNDING Among the many efforts under way in FY03, the initial development of end-to-end prototype signal-processing architecture and algorithms was completed under the RPS effort, a real-time at-sea system demonstration was planned, and system trade studies for alternative acoustic aperture concepts were conducted. Various structural, material, and architectural trade studies were conducted under the Loki program. Included in these studies were hydrodynamic performance modeling, an examination of system structural materials, and advanced pod design. In addition, sensor guidance and control design studies were initiated, and simulation models designed. Finally, efforts were started to develop technologies for classifying and identifying buried mines and other underwater objects, and for locating and tracking maritime targets of interest. In addition, innovative acoustic array technologies were explored, unique weapons-payload concepts pursued for potential deployment on submarines and other undersea vehicles, and conceptual design studies for small, autonomous undersea vehicles were conducted. At the end of FY04, this program will be ended and efforts budgeted in this program will be transferred to PE#0603766E Project NET-02 to better reflect the current emphasis on network-centric warfare. FY03 FY04 FY05 FY06 QTY AMT QTY AMT QTY AMT QTY AMT RDT&E (U.S. DoD) PE#0603763E Marine Technology - 16.1-13.7-0 - 0 All US$ are in millions. Source: U.S. DARPA FY2005 RDT&E Programs (R-2) This program ends in FY2004. Efforts budgeted in this program are being transferred to PE#0603776E Project NET-02 to better reflect the current emphasis on network-centric warfare. Recent Contracts Specific contracts for this program have not been identified through public source information at this time. Timetable Year Major Development 1997 Arsenal Ship concept canceled; program focus shifts to auxiliary projects; NetSAT project starts 1999 NetSAT prototype complete 2000 NetSAT update and follow-on technical demonstration

Land & Sea-Based Electronics Forecast Marine Technology - Archived 7/2005, Page 5 Year Major Development 2001 Final NetSAT operational demonstration; conceptual design of Future Submarine Payloads program 2002 BCAA prototype antenna complete; BCAA surface ship system test complete; BCAA submarine system demonstration; Vortex Combustor units fabrication 2003 RPS real-time signal-processing demonstration; performance testing of Vortex Combustor exploratory system complete; development of Loki system concept of operations complete, along with military utility studies 2004 Program efforts to transfer to PE#0603756E Project NET-02 at end of year Worldwide Distribution This was U.S. Department of Defense-led effort, run through the Defense Advanced Research Projects Agency (DARPA) in part for the U.S. Navy submarine fleet. The goal of the U.S. Defense Advanced Research Projects Agency s (DARPA) Marine Technology program was to accelerate critical advanced technologies and systems concepts for maritime applications, especially those involved in littoral warfare. The aim was to improve both the power-projection capabilities of the U.S. naval forces (particularly their ability to influence land battles), and their ability to counter threats. Projects encompassing the program included Advanced Ship Sensor Systems (sensing and communication technologies), Undersea Littoral Warfare (Netted Search, Acquisition, and Targeting systems), Water Hammer (mine neutralization), Buoyant Cable Array Antenna (submarine communications), Robust Passive Sonar (acoustics), Vortex Combustor, and Loki system development. Ten-Year Outlook Forecast Rationale Originally, funding for the Marine Technology program was expected to increase over the forecast period; however, the high costs of the war in Iraq and the war on terrorism have meant severe funding cuts for the program. Additionally, the current U.S. focus on network-centric warfare will likely reduce funding in several other technology programs not directly related to it. (Network-centric warfare involves how the U.S. can make the best strategic and tactical use of all the information it gathers. It is not a new concept at all, just a new name.) This report will be archived in 2005 in favor of a new report to be developed at a later date on PE#0603766E Project NET-02 which is absorbing many of the efforts from the Marine Technology program and redesigning them with a new emphasis on network-centric warfare. Note: For the purposes of this market intelligence report, the funding history for this effort starts in 1998, when the Arsenal Ship concept was advanced. ESTIMATED CALENDAR YEAR FUNDING ($ in millions) High Confidence Good Confidence Speculative Level Level Total Designation Application Thru 03 04 05 06 07 08 09 10 11 12 13 04-13 MARINE TECHNOLOGY NAVAL WARFARE (U.S. NAVY) 173.258 13.751 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 13.751