Understanding provides the context for the decision-making process which informs the application of national power. The purpose of understanding is to equip decision-makers at all levels with the insight and foresight required to make effective decisions as well as manage the associated risks and second and subsequent order effects.
The human domain concerns the interaction between human actors, their activity and their broader environment. It is defined as the totality of the human sphere of activity or knowledge. This broad environment is shaped by 4 principal factors: the culture that affects how they interpret and orient themselves towards that environment; the institutions which embody cultural ideas as practices; the technology and infrastructure that people assemble to survive in their environment; and the physical environment in which people live. The human domain framework considers these 4 areas as environments (cultural, institutional, technological and physical) to capture the interaction between human actors and their wider environment. The framework takes the approach that considering the role of people as actors on the global stage - as states, non-state actors, populations, organisations, groups and individuals – provides insufficient depth to develop effective understanding. Actors must be set within their cultural, institutional, technological and physical environments to provide the appropriate context for developing understanding.
The National Research Council was asked by the U.S. Air Force to review relevant IOS [individual, organizational, and societal] modeling research programs in the various research communities, evaluate the strengths and weaknesses of the programs and their methodologies, determine which have the greatest potential for military use, and provide guidance for the design of a research program to effectively foster the development of IOS models useful to the military.
Chapter 3 - Verbal Conceptual Models and Verbal Cultural Models
Chapter 9 - State of the Art with Respect to Military Needs
Chapter 11 - Recommendations for Military-Sponsored Modeling Research
Appendix B - Exemplary Scenarios and Vignettes to Illustrate Potential Model Uses
Appendix C - Candidate DIME/PMESII Modeling Paradigms
Social network analysis tools cannot be honestly sold as the sole determinant for success. Ideas, systems, and metrics are moving in the right direction, but gaps remain. While analysts cannot fully eliminate preconceptions and error, they can leverage effort to tamp it down. One must select the models that best fit and ignite the white heat of analysis.
Joint Forces Command, in concert with the Intelligence Community, must engage Centers of Excellence to develop more adaptive social network research capabilities. We do not yet have reliable “devil’s advocate” analytical systems, and work is needed to improve analytical tools for military decision-making and planning.
The purpose of this thesis is to develop a system dynamics model of leader emergence. Longitudinal social network and personality data were collected in a class of enlisted military professionals attending a six week leadership development course.
Findings support known relationships in existing leadership research. This thesis demonstrates the applicability of system dynamics toward the complex social phenomena of leader emergence.
Group performance has been an important topic as evidenced by an extensive literature review that has supports a positive relationship between group cohesion and performance. Social network researchers have also found similar relationships between cohesion and group performance using social network density as a proxy for cohesion. The traditional cohesion construct is measured using an attitudinal instrument that relies on member perceptions that are aggregated at the group level. The density construct, on the other hand, is based on social network relations which are based on behaviors and actual member interactions and relationships. Considering these differences, although both cohesion measures have been shown to predict group performance, it is important to understand their subtle differences in order for leaders to accurately understand how to influence each.
To provide maximal disruption to a clandestine/terrorist network’s ability to conduct missions, we must develop a means to determine the individuals’ importance to the network and operations. In a network centric world, this importance is represented as an additive value of their criticality across the convergence of multiple layers of network connections. The connections layers of the network are comprised of social layers (Acquaintance, Friendship, Nuclear Family, Relatives, Student-Teacher, and Religious Mentors, Reverent Power and others), as well as layers representing interactions involving Resources, Knowledge/Skills and Temporal Local. The social criticality of an individual is measured by centrality.
Prevention of near-term terrorist attacks requires an understanding of current terrorist organizations to include their composition, the actors involved, and how they operate to achieve their objectives. To aid this understanding, operations research, sociological, and behavioral theory relevant to the study of social networks are applied, thereby providing theoretical foundations for new methodologies to analyze non-cooperative organizations, defined as those trying to hide their structure or are unwilling to provide information regarding their operations.
Another assumption of this research is that observations are based strictly on outward behavioral system attributes. This passive approach will always have more error and uncertainty associated with it since the time between the observed behavior and the action that produced the observed behavior will rarely be instantaneous. If the effectiveness measurement framework developed in this research could be linked with internal models of the system of interest, not only could the error and uncertainty be significantly mitigated, but system state changes from a given action could be forecasted.
This thesis uses Decision Analysis principles, specifically a Value-Focused Thinking-like approach, to develop an initial hierarchal model of significant factors influencing an individual’s commitment to a terrorist organization, or any clandestine group of violent extremists. Individuals are evaluated and scored according to the model to identify exploitable vulnerabilities in their commitment level. This information is then used to identify fissures of the entire organization that can be used to diminish the cohesion of the group.
This thesis develops a new proxy measure of pair-wise potential influence between members of a network, a Holistic Interpersonal Influence Measure (HIIM). The HIIM considers the topology of the multiple formal and informal networks to which group members belong as well as non-network characteristics such as age and education level that may indicate potential influence. The HIIM, once constructed results in a network of pair-wise potential influence between group members.
In addition to an overall measure of influence, the HIIM methodology provides important intermediate results such as the development of operational group profiles.
The methodology is applied to open source data on both Al Qaeda and the Jemaah Islamiah (JI) terrorist networks. Key leaders are identified, and leadership profiles are developed. Further, a parametric analysis is performed to compare influence based on individual characteristics, network topology characteristics, and mixtures of network and non-network characteristics.
Social network analysis focuses on modeling and understanding individuals of interest and their relationships. Aggregation of
social networks can be used both to make analysis computationally easier on large networks, and to gain insight in subgroup
interactions.
Social networks depict the complex relationships of individuals and groups in multiple overlapping contexts. Influence in a social network impacts behavior and decision making in every setting in which individuals participate. This study defines a methodology for modeling and analyzing this complex behavior using a Flow Model representation. Multiple objectives in an influencing effort targeted at a social network are modeled using Goal Programming. Value Focused Thinking is applied to model influence and predict decisions based on the reaction of the psychological state of individuals to environmental stimuli.
This research effort suggests a single COG, Public Support as the transnational terrorists’ key driver. An influence diagram-like approach was used to collect, organize, and display the COG and its key elements of value. These qualitative influence diagrams serve as a basis to develop a system dynamics model where quantitative measures were applied to the interactions. A prototype model capable of capturing and utilizing time-persistent and higher order effects that provides insight to decision makers regarding alternative strategic policies and courses of action (COA) against transnational groups has been developed and illustrated against a notional transnational terrorist group
au/awc/awcgate/afit/sylvester.pdf">Influence of Anonymity in a Group Problem-Solving Environment (local copy)
, by Sylvester, AFIT, Mar 2000
Overall, the conclusion of this study suggests that process anonymity has a weak detrimental effect on problem-solving groups in terms of improvement in decision quality and satisfaction with the group outcome.
OBJECTIVE: Develop a new class of multi-attribute behavior signatures to enable the anticipation of enemy activities.
DESCRIPTION: Asymmetric warfare and operations against transnational terrorist groups requires new methods and techniques to better anticipate potential adversaries actions. New classes of multi-attribute behavior signatures are required to predict adversary intent and anticipate their likely courses of actions (COA). These behavior signatures could potentially draw upon multiple streams on intelligence data, possibly over long temporal durations, to provide direct and indirect indicators, or fingerprints, of activities of interest. From a conceptual perspective, behavior signatures can be thought of as schemas or frames whose attributes delineate a set and arrangement of characteristics, or patterns of activity, that define the behavior of potential threat entities to include individuals, groups, organizations, societies, and nations/states. Behavior signatures can be developed from focused knowledge about the identity of interest; they will define the entities methods of operations. The activation of a behavior signature is not all or none. Rather, a partial activation, where some but not all of the attributes are matched, might trigger a request for additional surveillance or a reprioritization of ongoing analyses of intelligence data. Behavior signatures could, for example, be implemented as intelligent agents or a case-based reasoning system that monitors streams of intelligence data. Research is needed to define select initial signature libraries, to explore what type of architecture would be required to instantiate behavior signatures as a computational system, and identify which Air Force systems would benefit most from behavior signatures technology. Initial libraries could focus on, for example, insurgents’ activities within a theater of operations or terrorists’ activities within an urban (Western) environment. Potential systems behavior signatures could be embedded in distributed ground control system (DGCS) or a command center, such as those employed in uninhabited air vehicle operations.
Asynchronous Chess (AChess) is a platform for the development and evaluation of real-time adversarial agent technologies. It is a two-player game using the basic rules of chess with the modification that agents may move as many pieces as they want at any time. Modifying chess in this way creates a new robust, asynchronous, real-time game in which agents must carefully balance their time between reasoning and acting in order to out-perform their opponent. As a fast-paced adversarial game, many challenges relevant to real-word application arise which give it merit for study and use.
The increase in limited conflict warfare has created new challenges in mission planning and simulation. New approaches to warfare planning, such as effects based operations and predictive battlespace awareness, have also increased the need for improved simulations. An important part of simulation for mission planning is the creation and exercise of realistic adversary responses to friendly force actions. Typical “flipped” response approaches, while adequate when facing a doctrine based opponent are no longer sufficient with the types of less predictable, less organized adversary forces commonly faced in modern battlefield scenarios. The Emergent Adversarial Modeling System, or EAMS, is under development to address this shortfall. EAMS is being developed by a team of researchers from Securboration and the University of Connecticut under the direction of the Information Directorate of the Air Force Research Laboratory.
A significant research challenge for wargaming is predicting and assessing how friendly actions result in adversary behavioral outcomes, and how those behavioral outcomes impact the adversary commander’s decisions and future actions. The focus of this research is to develop technologies to assist decision makers in assessing friendly COAs against an operational-level adversarial environment.
Commander's Predictive Environment (CPE)-Understand the Battlespace
- synopsis posted at FBO.GOV of solicitation Reference-Number-BAA-06-07-IFKA, 18 Aug 2006 modification
The objective of the Commander's Predictive Environment (CPE) program is to provide a decision support environment that enables the Joint Force Commander / Joint Force Air Component Commander (JFC/JFACC) to better anticipate and shape the future battlespace. Key objectives of CPE are to design, build, test, integrate, and evaluate tools to support and enhance the Joint Intelligence Preparation of the Battlespace (JIPB) and Joint Air Estimate Process (JAEP) processes.
Air Force Research Laboratory (AFRL) is soliciting white papers for developing innovative and critical technologies necessary to make the CPE capability viable. White papers are sought addressing any or all of the following four areas:
Defining and Understanding the Operational Environment
To assist in understanding the operation environment, a System-of-Systems Analysis (SoSA) is employed, treating the battlespace as an interrelated system across Political, Military, Economic, Social, Information, and Infrastructure (PMESII) dimensions. This process attempts to 1) Model and analyze adversaries, self, and neutrals as a complex adaptive system; 2) Understand key relationships, dependencies, and vulnerabilities of adversary/self/neutrals; and 3) Identify leverage points that represent opportunities to influence capabilities, perceptions, decision making, and behavior. The objective is to develop computer-based modeling and simulation capabilities that describe and project the complex dynamics of the operational environment (across PMESII dimensions) to better understand adversary/neutrals/self strengths, capabilities, vulnerabilities, and critical gaps. Technology needs include behavior models, model integration frameworks, and model development environments.
Behavior Signatures: AFRL is interested in developing behavior signatures which can be thought of as schemas or frames whose attributes delineate a set and arrangement of entity characteristics and patterns of activity that define the behavior of potential threat entities. The entity may be individuals, groups, organizations, societies, and/or nations/states. The behavior signatures are envisioned as being dynamic, active monitors drawing upon multiple streams of intelligence data, possibly over long temporal durations, to provide direct and indirect indicators, or "fingerprints", of activities of interest. Behavior signatures can be developed from focused knowledge about the identity of interest; they will define the entities methods of operations. Research is needed to define signature libraries; develop analytic methodologies for assessing adversaries; provide a sensemaking support environment for the creation, interpretation, and exploitation of signatures and models; explore what type of architecture would be required to instantiate behavior signatures as a computational system; and identify which air force systems would benefit most from behavior signatures technology.
Course of Action Development, Analysis, Comparison, and Selection.
The MURI program is a multi-agency DoD program that supports research teams whose efforts intersect more than one traditional science and engineering disciplines. Multidisciplinary team effort can accelerate research progress in areas particularly suited to this approach by cross-fertilization of ideas, can hasten the transition of basic research findings to practical applications, and can help to train students in science and/or engineering in areas of importance to DoD.
Cognitive Architecture for Reasoning About Adversaries, by Dana Nau, U. of Maryland-College Park - MURI category: Dynamic, Adaptive Techniques for Adversary Behavior Modeling
The three-year project is funded at $3.4 million, with an option for two additional years. The project is within the “Dynamic, Adaptive Techniques for Adversary Behavior Modeling” MURI category and will be funded by the Air Force Office of Scientific Research (AFOSR).
The project will develop theory and algorithms for a cognitive architecture for reasoning about adversaries. This architecture will initially estimate adversary models, then automatically modify and continuously update them for a variety of DOD customers and client programs. The researchers will develop ways to access and integrate diverse databases; dynamically learn what adversaries think; create an adversary modeling language; learn, calibrate, and maintain adversary models; construct a strategy development architecture; and develop an adversarial game testbed.
The cross-disciplinary team includes Professor Michael Fu (BGMT/ISR) and Barry Silverman (UPenn), who are experts in operations research; Nau, a game-tree search and planning specialist; Philip Resnik (Linguistics); political scientist Jonathan Wilkenfeld (Government and Politics); machine learning and data mining researchers Subrahmanian and Lise Getoor (CS/UMIACS); and Marvin Weinbaum, a cultural expert on Afghanistan and Pakistan.
CASOS brings together computer science, dynamic network analysis and the empirical study of complex socio-technical systems. Computational and social network techniques are combined to develop a better understanding of the fundamental principles of organizing, coordinating, managing and destabilizing systems of intelligent adaptive agents (human and artificial) engaged in real tasks at the team, organizational or social level. Whether the research involves the development of metrics, theories, computer simulations, toolkits, or new data analysis techniques advances in computer science are combined with a deep understanding of the underlying cognitive, social, political, business and policy issues.
The Laboratory for Human Terrain at Dartmouth College is focused on the foundational science and technology for modeling, representing, inferring and analyzing individual and organizational behaviors.
The System Architectures Laboratory, as part of the Department of Electrical and Computer Engineering of George Mason University, conducts basic and applied research in several areas: the modeling, design and evaluation of architectures for information systems; the design of adaptive decision making organizations; and the application of Bayesian nets to course-of-action selection. In all cases, the emphasis is on Command and Control applications.
With the broad application of electronic communication monitoring tools and data-sharing techniques, the size of networks to be studied by social network analysis (SNA) has grown rapidly. However, current SNA techniques are not particularly scalable. For example, even centrality, which is one of the most frequently used SNA parameters, cannot be measured by most current SNA software when the network is large. This paper presents the design of an effective and scalable anytime anywhere parallel methodology for SNA with large-scale networks emphasizing centrality measurement algorithms. The efficiency and effectiveness of the methodology is validated by experiments of centrality analysis for large networks. [from IEEE summary]
"We will create easily trainable learning algorithms that can automatically create domain-specific patterns to identify facts and relations associated with relevant events...."
"We will develop trainable learning algorithms that can distinguish factual assertions from subjective (non-factual) assertions, identify beliefs that are held by an entity, and assess the intensity, polarity, and motivation and attitude types of those beliefs."
"We will create methods for understanding event and belief progressions over time."
discovery and extraction of relevant information from diverse media, including text (email, news, blogs, etc.), speech, geospatial sources (maps, satellite images, etc.),
integration and storage of this information in standardized homogeneous format,
automated discovery of trends and patterns from the integrated information, across the media, in order to find interesting knowledge that may not be apparent in any single medium alone.
User modelling is a key element in successfully assisting intelligence analysts who must gather information and make decisions without being overloaded by the massive amounts of data available on a daily basis most of which are irrelevant. Furthermore, with user modelling, we can predict the goals and intentions of the analyst in order to better serve their information seeking tasks by providing better re-organization and presentation of data as well as pro-actively retrieve novel and relevant information as it arises. Our goal is to provide a dynamic user model of an analyst and work with him as he goes about his daily tasks.
FY08 Laboratory Directed Research & Development (LDRD) Funded Projects by Program Area included
Large Scale Simulation for Human Behavior Modeling
Identification of Threats Using Linguistics-Based Knowledge Extraction
Verification and Validation R&D for Computational Cognitive and Social Models
FY07 Laboratory Directed Research & Development (LDRD) Funded Projects by Program Area included
Large Scale Simulation for Human Behavior Modeling
Accommodating Complexity and Human Behaviors in Decision Analysis
Cognitive Modeling of Human Behaviors
Enabling All-Threat Analysis Through Intelligent Filtering of Network Traffic
Filtering & Ranking Millions of Terrorist Scenarios using Adversary/Defender Modeling and Risk-Based Linguistic Approximate Reasoning with Belief and Plausibility Measures for Uncertainty
Identification of Threats Using Linguistics-Based Knowledge Extraction
DARPA has recently undertaken a research project titled Real-time Adversarial Intelligence and Decision-making (RAID), which provides in-execution predictive analysis of probable enemy actions. A particular focus of the program is tactical urban operations against irregular combatants – an especially challenging and operationally relevant domain. The RAID program leverages novel approximate game-theoretic and deception-sensitive algorithms to provide real-time enemy estimates to a tactical commander. In doing so, the RAID program is addressing two critical technical challenges: (a) adversarial reasoning: the ability to continuously
identify and update predictions of likely enemy actions; (b) deception reasoning: the ability to continuously detect likely deceptions in the available battlefield information.
includes chapters on challenges for the intelligence community, learning and evaluation, analysis, the workforce, collaboration, and communication
In 2008, the Office of the Director of National Intelligence (ODNI) asked the National Research Council (NRC) to establish a committee to synthesize and assess evidence from the behavioral and social sciences relevant to analytic methods and their potential application for the U.S. intelligence community. In Intelligence Analysis for Tomorrow: Advances from the Behavioral and Social Sciences, the NRC offers the Director of National Intelligence (DNI) recommendations to address many of the IC's challenges.
includes chapters on intercultural competence, teams in complex environments, nonverbal communication, behavioral neuropshysiology, culture and negotiations, and science of emotion: what people believe and what the evidence shows
"As web companies strive to tailor their services (including news and search results) to our personal tastes, there's a dangerous unintended consequence: We get trapped in a "filter bubble" and don't get exposed to information that could challenge or broaden our worldview. Eli Pariser argues powerfully that this will ultimately prove to be bad for us and bad for democracy."
"Interviewers who spoke moderately fast, at a rate of about 3.5 words per second, were much more successful at getting people to agree than either interviewers who talked very fast or very slowly," said Jose Benki, a research investigator at the University of Michigan Institute for Social Research (ISR).
... They found that males with higher-pitched voices had worse success than their deep-voiced colleagues. But they did not find any clear-cut evidence that pitch mattered for female interviewers.
The last speech characteristic the researchers examined for the study was the use of pauses. Here they found that interviewers who engaged in frequent short pauses were more successful than those who were perfectly fluent.
... If interviewers made no pauses at all, they had the lowest success rates getting people to agree to do the survey. We think that's because they sound too scripted.
... But in an information saturated world where so many claim to be experts, what does the latest persuasion research tell us about which expert we should pay particular attention to? And how could such insights help when attempting to persuade others?
... A series of new studies conducted by Stanford Business School’s Zak Tormala and Uma Karmarkar and published recently in the Journal of Consumer Research suggest that rather than the most confident sounding expert being the most persuasive it is often the recommendations and advice from experts that are themselves uncertain, that will be more compelling.
Their series of studies found that an experts’ influence over others increases when that expert expresses minor doubts about their advice and opinions. They found that this effect was particularly acute when an expert’s advice concerned subjects or situations where there was no one single clear or obvious answer.
... In explaining these counter intuitive findings the researchers point out that because people generally expect experts to be certain of their opinions, when that expert signals potential uncertainties about their message people become more intrigued and drawn in to what they are saying. In effect the incongruity between the source’s expertise and their level of uncertainty makes his or her message appear more intriguing. As a result, assuming that the arguments in a message are reasonably strong, this drawing in of an audience leads to more effective persuasion.
... And when it comes to persuading others about the merits and benefits of the products and proposals we have to offer, assuming our case is a strong one, it would seem sensible that rather than hide or cover up minor drawbacks and weaknesses in our case, we instead embrace them in the knowledge that they can actually make us more persuasive.