DEFENSE TECHNOLOGY AREA PLAN
CHAPTER III -- INFORMATION SYSTEMS TECHNOLOGY

1. INTRODUCTION

The Information Systems Technology (IST) area is developing the technologies and architectures needed to provide warfighters with the right information, in the right place, at the right time. To accomplish this, there must be flexible architectures that allow:

1.1 Definition/Scope

The Defense Technology Area Plan (DTAP) for IST covers the five subareas shown in Figure III-1. Because of the high degree of interrelationship among these five areas, the

Figure III-1. Planning Structure: Information Systems Technology Area

technology development efforts for them are being integrated. By integrating them, we achieve greater focus and efficiency from our technologies and provide a common framework for integrating new technologies as they emerge. The overarching concept for integrating service programs in these areas is to implement a "virtual laboratory" connecting service laboratories and users over high-capacity lines that allow interactive and focused experiments to take place. Figure III-2 displays this concept. This approach will maximize the expertise in each service, leverage service technologies, share common products, and achieve interoperability by embracing a common architecture. Figure III-3 shows the focus of these efforts starting on the left with the warfighters' needs, then using the virtual laboratory to integrate programs, and finally including the services' focused efforts in each of the five critical subareas.

Figure III-2. IST Virtual Laboratory Concept

Figure III-4 illustrates the efforts of these five subareas that, when integrated, become effective command, control, communications, computing, and modeling/simulation building blocks that are pivotal elements of modern warfighting. They will provide the means for collaborative training, planning, mission rehearsal, decisionmaking, information distribution, and successful employment of accurate weapon systems. The efforts in the DTAP are the "glue" that integrates the sensors and provides the critical information to the weapon systems. Achieving this capability requires significant investment, either to leverage the commercial sector or to develop the unique military components.

Figure III-3. IST Focus

Figure III-4. Integrated, Interrelated Technologies

A brief summary of the five subareas shown in Figure III-1 follows. Decisionmaking is the heart of the command process. It encompasses the development of common, modular elements that connect joint mission planning, rehearsal, execution monitoring, and common pictures of the battlespace. This will provide battlefield picture and situational assessment products that support real-time operations. M&S is a fundamental component of the other four subareas as well as supporting all other DTAP areas and the Joint Warfighting Capability Objectives (JWCOs). M&S technologies will provide both an assessment capability for supporting the development of these other technologies and a capability for facilitating interoperability between simulations and to live command, control, communications, computers, and intelligence (C4I) systems. Cost-effective development of an M&S application is achieved through the use of a common technical framework for M&S (HLA, CMMS, and data standardization) along with authoritative representations of environments, systems, and human behavior. Information Management and Distribution (IM&D) provides the information infrastructure and products needed by the other four areas (and other DTAP areas) for information security, distributed computing, distributed multimedia databases, and visualization. This movement of information is critical to satisfying the warfighters' needs for the future. Seamless communications spans the globe, interconnecting command echelons, services, and allies worldwide by implementing common transport protocols and dynamic network management. By focusing on wide bandwidth capabilities linked to our currently narrowband tactical systems, including mitigated modems to recover messages during nuclear and natural disturbed environments, we can provide the correct critical information to the warrior anywhere in the world. Computing and software technology will provide an integrated approach for private sector and government efforts. Focus will be on compatible software architectures, improved software tools to reduce development costs, high-performance computing, intelligent agents, and user interfaces.

1.2 Strategic Goals

The top-level goals of the IST research and development programs are to deliver technology solutions that provide:

The goals for IST development have been coordinated with the findings of Advanced Battlespace Information System (ABIS) Task Force. Table III-1 maps the appropriate critical functional capabilities identified in the ABIS study to the DTOs of the IST area. IST programs will develop the technology to provide a real-time, fused, battlespace picture with integrated decisions aids. The technology will provide the processing infrastructure, intelligent/anticipatory data manipulation and distribution, and dynamically adaptive algorithm, broadband communications linkages required for both command and sensor-to-shooter (STS) applications. Warfighters will be able to exchange information unimpeded by differences in connectivity, environmental conditions, processing and interface characteristics. With these capabilities, we will have the ability to establish distributed, virtual staffs that share a common, consistent perception of the battlespace. The warfighter will have the capability to construct distributed task teams among command posts split between areas of operation and rear areas to include continental United States (CONUS) with the resultant linkage of sensors, weapons, and decision makers. Specific examples of the critical benefits provided are included in following sections.

Table III-1. IST DTOs Implement ABIS-Identified Critical Functional Capabilities

Table III-1. IST DTOs Implement ABIS-Identified Critical Functional Capabilities (continued)

1.3 Acquisition/Warfighting Needs

The IST technology efforts are critical to the stated joint warfighting needs of Information Superiority, Precision Force, Combat Identification, Joint Theater Missile Defense, Military Operations in Urban Terrain, Joint Logistics and Readiness, Joint Countermine, and Electronic Combat. Table III-2 shows the powerful technology transition opportunities to enhance warfighter capabilities.

Table III-2. Information Systems and Technology Transition Opportunities

Current Baseline5 Years10 Years15 Years
DECISION MAKING SUBAREA
Time-consuming and manually intensive planning. Semiautomated situational assessment, planning, and resource allocation. Automated decision aids with 3D perspective for both information and battlespace. Fully integrated GCCS applications that are scalable and tailorable to platform, echelon, and warfighter.
Limited interoperability among C2 systems. Hyperlink, integrated, sensor and situational 3D information displays. Hyperlinked information shared among C2 systems promotes rapid cognition. All-source hyperlinked information adapted to individual.
Limited battlefield visualization. Near-real-time 2D/3D visualization. Fully automated COE applications for assessment, planning, and monitoring. Joint, common core planner.
Few real-time aids, service-specific systems and tools. Collaborative, joint framework in place for automation and COE products.


Compatible with COTS, DSS, and EIS products.
MODELING AND SIMULATION TECHNOLOGY SUBAREA
One-of-a-kind, stove-piped models and simulations cost too much and take too long to build. Some interoperability available through ALSP and IEEE DIS. Interconnection and information technologies applied to M&S applications currently under development. Simulation generation technologies reduce development costs by a factor of 10 and development time by factor of 5. Simulation interoperability is expanded throughout the services and across the training, acquisition, and analysis communities. Simulation interoperability is optimized. Legacy systems (those developed prior to FY96) are either interoperable or no longer in the simulation community.
Use of M&S by live forces to plan and rehearse missions is limited by lack of adequate C4I simulation interfaces. C4I simulation interfaces for limited mission planning and rehearsal. M&S applications interfaced to live weapons, sensors, test and training ranges, and humans. Simulation augments operational warrior.

Table III-2. Information Systems and Technology Transition Opportunities (continued)

Current Baseline5 Years10 Years15 Years
MODELING AND SIMULATION TECHNOLOGY SUBAREA (cont'd)
Environmental databases lack interoperability, reuse, and rapid generation across all domain areas (terrain, ocean, atmosphere, space). Representation of human behavior (especially C2) is not available. 72-hour generation of cost-effective, high-resolution, small-area-coverage terrain environments. Environmental input to JSIMS and JWARS, supported by standard data. Human behavior C2modeling at battalion and company levels. Fully documented terrain, ocean, and atmosphere databases within 72 hours covering required maneuver areas. Human behavior C2modeling at brigade, division, and corps levels. Able to generate and interface databases of differing resolution in live, virtual, and constructive simulations for all environmental domain areas. Full, authoritative representation of both individual and group behavior for M&S applications.
Individual combatants are not fully immersed in virtual simulations, properly represented in constructive simulations, or adequately instrumented for linking live players to virtual and constructive simulations. Demonstrate capability to fully immerse individual combatants in virtual environment, represent some human behaviors in constructive simulations, and realistically link live players to virtual and constructive simulations. Enhance simulation capabilities to reduce the time and cost of assessing individual combatant systems by 25% and reduce cost of training by 30%. Continue to improve representations of human behavior. Leverage advances in multisensory technologies and instrumentation to further immerse individual combatants in synthetic environments.
INFORMATION MANAGEMENT AND DISTRIBUTION SUBAREA
Interoperable DCE. Hybrid real-time/non-real-time DCEs interacting with mobile DCE clusters. Real-time multimedia object-oriented DBMSs with mobile clusters. Adaptive intelligent DCEs used for training, simulation, and warfare.
Battlefield data distribution not echelon aware. End-system aware self-stripping multimedia objects. Information distribution that is cognizant of echelon, spatial, and temporal issues. Seamless CINC-to-foxhole information distribution.
Homogeneous, secure system component solutions. Composable COTS for secure systems solutions. Secure, high-assurance distributed computing environments. Automated security policy maintenance with adaptive security structures.
SEAMLESS COMMUNICATIONS SUBAREA
Mechanisms for fault tolerance. Intelligent fault recovery. Automated replication and distribution of assets. Self-healing systems with predictive fault avoidance.
Circuit, packet, and message switching networks overlayed in a single backbone, 2 Mbps stationary trunk radios, tactical Internet. ATM utilized for multimedia applications and as a transport for existing, wide-area switched networks, 45-Mbps stationary trunk radios, Ipng, mobile IP, multicast. ATM/ISDN upgrades to wide-area systems, 45-Mbps OTM radio and 155-Mbps stationary trunk radios, wireless ATM to mobile users. Tactical B-ISDN, 155-Mbps OTM trunk radios, 600-Mbps stationary.

Table III-2. Information Systems and Technology Transition Opportunities (continued)

Current Baseline5 Years10 Years15 Years
SEAMLESS COMMUNICATIONS SUBAREA (cont'd)
DBS/GBS demonstrated. 23-Mbps GBS, in-theater injection. 23-Mbps GBS, global theater injection. Military GBS with high-data-rate reachback.
Single-channel radios with multiwaveform programmability. Speakeasy/FDR. Smart radio functions for FDR. Universal digital radio (the "PC" of communications).
Range extension trials completed, limited advanced warning of communications blackout. Range extension via relay of opportunity and mobile networks, prediction of blackouts due to adverse environments. Medium-endurance, communications-relay UAV. High-endurance, communications-relay UAV.
COMPUTING AND SOFTWARE TECHNOLOGY SUBAREA
Limited application of reusable software components. Software-developed component by component with extensive use of COTS/GOTS for SC-21, JSTARS, NSSN, DSP, Cheyenne Mtn., Aegis, and THAAD. Domain-specific development through specification process only — for JTF C2, flight simulators, and UAVs. Warfighter-modifiable systems — for ATR, THAAD, JTF C2, and UAVs.
Autonomous devices operating independently. Team tactics demonstrated for autonomous multiagent behavior for hazardous operation in vehicle maintenance, unmanned vehicles, and information fusion. Plan creation and execution among cooperating intelligent robots for mine clearing, UAVs, information collection, integration, and fusion. Self-initiated plan creation and execution among cooperating intelligent robots for space system repair, unattended systems, and mine sweeping.
Heavily tethered, limited interaction, single-user VR displays. Tether-free, multiple-user, single-discipline interaction with 10,000-word vocabulary for mission rehearsal and mission planning applications. Single-user, immersible VR with 50,000-word vocabulary in multiple-discipline collaboration for JTF, mission simulation, rehearsal, planning, and execution. Multiple-user, real-time VR for telepresence and UAV mission training.
10 GFLOP/ft3, militarized. 100 GFLOP/ft3, militarized for enhanced Aegis and THAAD. TFLOPS/ft3, militarized for space-based DEW, ATR, sensor/knowledge fusion, and autonomous UAVs 100 TFLOPS/ft3, militarized for real-time situational awareness in the cockpit.

Note: See page III-52 for abbreviation/acronym list.

Access to and exploitation of timely information is a key element of America's future warfighting and crisis management capabilities, as well as its national competitiveness. The projected force-level-multiplier advantage of information technology stands far above that of all other technical areas. Such capability, while greatly enhancing the autonomy and survivability of individual units, will quickly provide an advantage in any conflict, supporting early, decisive victory with minimal cost in assets and human life.

The information environment requirements for the industrial, commercial, and financial communities are similar in many ways to the DoD information environment. There are leveragable development activities in the commercial sector addressing many of the same technical issues as DoD. Global industrial and financial institutions must have reliable, global, data access. Their multinational status requires support for heterogeneity. Movement of global markets requires very rapid response to change and guaranteed availability. This creates the need for similar distributed information systems that provide location-transparent access to globally distributed data from both advanced and Third World sites.

Advanced software and computing technologies are essential to supporting both the commercial information environment requirements and the DoD's Joint Staff future joint warfighting capabilities. As much as 90% of the cost of C4I systems and 80% of the functionality of products such as avionics systems are directly and solely attributable to software. High-performance computing and image understanding coupled with high-performance networking, distributed systems, and mobile computing form the foundations for instantaneous recognition of targets and rapid communication of the information. IST also enables a wide range of defense-critical applications, such as new methods for design enabled by computational models in many science and engineering disciplines. Advanced M&S tools and technologies will provide simulation-based training systems and embedded training that offer more cost-effective means of enhancing individual and unit performance warfighting tools that support C2 decisionmaking systems and provide a means for conducting mission analyses and rehearsals. For modernization, M&S technology will reduce the time, resources, and risks associated with the acquisition process while enhancing the performance of the acquired systems. Virtual prototypes will be evaluated in realistic synthetic acquisition and operational environments, supporting the many phases of the acquisition process from requirements definition and initial concept exploration to the manufacturing and testing of new systems.

Many of these advances in IST are being driven by commercial developments and products. The results can be brought to bear on DoD problems through cooperative efforts and participation in efforts to set standards and establish policy. Costly DoD-specific development can be avoided with the amortization of costs across government and commercial communities. However, there are aspects of command, control, communications, and computers (C4) and M&S that must be strongly influenced or directly supported by DoD. In particular, developing the capability to reliably communicate to and among numerous, widely dispersed mobile sites operating in actively hostile environments, identifying friend and foe, achieving information security, and meeting the requirements for military-unique processing and decision support systems will not be achieved without significant DoD support. The IST acquisition strategy is necessarily a pragmatic one — identify the pivotal issues, capitalize on commercial development whenever feasible, leverage development in areas with special military aspects, and sponsor programs in technologies with unique DoD interest that would otherwise not be available to meet DoD needs.

This technology area embodies enormous dual-use potential in numerous areas vital to economic competitiveness and other national concerns. Beside the direct application of this technology to defense sciences and engineering, it has great potential for significant contributions to more effective health care procedures, enhanced education and lifelong learning, more timely and less costly procurement through electronic commerce, more efficiently managed and integrated transportation networks, effective delivery of innovative information services to average citizens, and sound methods of environment monitoring, weather prediction, and pollution control. For example, approximately 80 to 90 percent of DoD's investment in computing and software technology can be credibly regarded as having substantial dual-use potential by even the most conservative of individuals.

A glossary of abbreviations and acronyms used in this chapter begins on page III-52.

1.4 Support for Combating Terrorism

Many of the technologies and developments in the Information Systems Technology area could easily be adapted to provide a capability to combat terrorism. A summary of these capabilities and associated DTOs is provided in Table III-3.

Table III-3. Support for Combating Terrorism

IST CapabilitySupporting DTOs
DECISION MAKING
Visualization tools and techniques.
Cognitive displays, virtual reality, and 4D real-time presentation.
Distributed, collaborative planning.
IS.01.01 - Consistent Battlespace Understanding
IS.02.01 - Forecasting, Planning, and Resource
Allocation IS.03.01 - Integrated Force and Execution Management
MODELING AND SIMULATION
Distributed simulation to predict effects of weapons of mass destruction (e.g., chemical/biological).
Training, mission planning, and rehearsal for counterterrorism missions.
Prediction of human/group behavior.
IS.10.01 - Simulation Interconnection
IS.11.01 - Simulation Information Technologies
IS.12.01 - Simulation Representation
IS.13.01 - Simulation Interfaces
IS.40.01 - Individual Combatant & Small Unit Operations Simulation
INFORMATION MANAGEMENT AND DISTRIBUTION
Adaptive information systems that can deter, detect, and help identify intrusion attempts that may precede terrorist acts.
Mechanisms for distributed environment that could be applied to coordinating disparate law enforcement and military forces.
Massive distributed data storage and management.
IS.15.01 - Assured Distributed Environment Support
IS.17.01 - Defensive Information Warfare
SEAMLESS COMMUNICATIONS
Seamless communications across disparate forces and systems.
Self-adapting, plug-and-play, and tactically equivalent mobile networking.
Adaptive multilevel security.
IS.20.01 - Universal Transaction Communications
IS.21.01 - Assured Communications
IS.23.01 - Digital Warfighting Communications
IS.24.01 - Multimode, Multiband Information Systems
COMPUTING & SOFTWARE TECHNOLOGY
Multimode, multilingual interfaces.
Intelligent agents for retrieval, filtering, and deconfliction.
Image understanding and pattern recognition.
IS.28.02 - Intelligent Information Technology
IS.31.02 - Intelligent Control
IS.32.02 - Information Presentation and Interaction