|
|
MISSION
CIAS Goals
are:
To consolidate the Texas A&M University educational and
research activities on Information Assurance and Security (IAS);
To accelerate the recognition of the University in this critical
field; and
To meet the ever-increasing demands of society for secured
information environments.
Key Objectives
of the CIAS are:
To function as an organized structure for facilitating scholastic
interactions of faculty and students who are actively engaged in IAS
research and education.
To act as a well-structured interdisciplinary unit to compete
for federal and state support using methods beyond the individual departments'
capabilities.
To provide a means for the efficient transfer of technical
advances to a large community and to industry.
To lead in the development of advanced educational structures
and create new educational programs and options, and to enhance existing
ones (including distance learning courses and programs).
To maintain an IAS lab for both education and research.
Program
Strengths
Education
Research
-
Security requirements research: characterizes the security
requirements for selected industries within each of the eight critical
infrastructure sectors identified in Presidential Decision Directive
63. This research recognizes that the U.S. has long depended on its
critical infrastructures for the delivery of services and products vital
to its defense, prosperity, safety and general welfare. In the past,
owners and operators of these infrastructures have planned against and
responded to service disruptions caused by technical failures and natural
disasters. However, there are some emerging trends that introduce new
threats. These include the use of higher levels of automation and remote
control, increasing dependency on public networks (especially internet-based
remote management systems), and the use of Commercial-Off-The-Shelf
(COTS) Personal Computers (PCs) in automation systems combined with
custom software. Each of these represents a new threat to the security
of the industries employing these technologies. The increase in dependencies
and connectivity between information systems has increased the likelihood
that individuals or groups may attack and disrupt our infrastructures.
Further, the growing dependence on information systems and networks
to operate those infrastructures has expanded the number of ways non-deliberate
system failures can occur. It is therefore desirable that sectors of
the critical infrastructures work together to develop a common set of
industry specific security requirements to establish a set of "best
practices" for all industries. This research will develop a common
framework by which the security requirements of all industries information
systems can be characterized.
The center
brings important science and technological expertise to the problems
of information assurance and security. It is clear, however, that scientific
and technological discoveries alone are not enough to bring us to the
security we want and need as a nation. The policies used to employ technologies
for cyber security will have to be implemented in the context of our
society's basic norms and values, including those of privacy, preservation
of individual rights, and respect for Constitutional divisions of authority.
In order to develop sustainable information assurance and security policies,
it is essential that the policy design account for and build upon these
core values and norms. In short, the social and policy task may be more
difficult than the technological one. Texas A&M scholars currently
maintain long-term research programs that track and evaluate the linkages
between public concerns and national security, as well as programs concerning
resolution of disputes over technological issues. Scholars at the Bush
School of Government and Public Affairs are building on these programs
to develop the most comprehensive policy scholarship concerning cyber
security in the U.S.
Information
assurance, personal privacy, and resilient information service are critical
to the U.S. leadership in the world economy. Internet gives U.S. the
leading edge in the development and use of information technologies,
but it also allows unprecedented convenience for hostile adversaries
to threaten the social kernel of the U.S. Critical sectors such as energy,
health, transportation, social and emergency services, manufacturing,
processing, and logistics and distribution functions are almost entirely
dependent on secure data interchange. The CIAS' interdisciplinary approach
will innovate, build new knowledge, and educate our new generation of
professionals, to defend the cyberspace, and to protect the new social
and economical infrastructures being developed worldwide. We have the
right combination of human resources, equipment, ideas, and instrumentation
plans to bring our research work into realistic contests for the specific
application domains, namely, e-government, banking and e-health. In
these selected areas, we address technical issues related to resource
access, intrusion detection, privacy, and social effects. It is clear
from recent headline news that Internet technology advances so fast
that the social infrastructure must catch up to meet the demands. The
CIAS brings experts in different disciplines together, to fully incorporate
the human group behavior, software development processes, and the networking
systems in human-machine simulation models. Through quantified modeling
and analysis, we believe that Texas A&M is making a profound impact
on information assurance and networking security, in addition to their
academic contributions.
CIAS research
focuses on robust architectures for networking and computing devices.
We have developed unicast and multicast protocols to resist eavesdropping
and traffic profiling of group communications. After the initiation
phase to establish group memberships and exchange shared key(s), communicating
nodes fragment and shuffle messages into unicast or multicast packets
to be transported. Using breadth-first and the depth-first approaches,
group members are configured into certain topologies to conceal traffic
patterns. These communicating protocols can be used to form an anonymous
communication layer, or as a highly robust, peer-to-peer communication
infrastructure for high value data exchange. We have developed highly
robust traffic flow control algorithms and scalable architectures. The
bandwidth control model is resilient to high intensity attacks and only
requires minimal resource support for implementation. In our most recent
work, we are development solutions for trusted computing devices. The
core concept of this research is to build provable kernel/OS services
that will be resilient to common attacks, and build higher-level applications
to enforce the systems
Specific
Research Areas are:
Cryptographic systems research: examines both the software and hardware
in use of commercial cryptography. Studies in the high-performance,
extremely-high-speed cryptographic systems in industry and commerce
will be incorporated with the technical/legal/policy interface occupied
by PKI and digital signatures to safeguard transactions in e-commerce.
Secret sharing with ramp schemes research: these schemes will be increasingly
necessary as backups for data which require safeguards against both
destruction and revelation by unauthorized parties. As much societal
vulnerability as possible must be removed from the physical realm (where
destruction of a prized artifact can be costly or irreversible) and
into the informational arena (in which the capacity to securely provide
instantaneous authentic replacements for destroyed secret objects enables
people to have uninterrupted real-time reliance on vital systems without
inconvenience.) Ideally, and, in many cases, successful application
of this approach masks even the realization that an entity has been
attacked.
General theory of codes research: emphasizes structure and functionality
as well as error control, compression, secrecy or authentication. This
research is well suited to the design of codes for novel uses. As computing
power moves up the algebraic or linguistic scale, this more sophisticated
approach to information security becomes increasingly practical.
Network camouflage: techniques developed for survivable, real-time communication
services for mission-critical systems. We propose to incorporate real-time
traffic modeling techniques into the security service to enhance both
system security and real-time capabilities in an adverse environment.
We invented traffic-modeling based traffic stuffing as highly effective
countermeasures against traffic analysis attacks in both wired and wireless
networks. This is the key element that makes our work innovative and
unique. Since 1999, the project has been funded by DAPRA for more that
$1.3M with support from state and industry an additional $500,000. In
2000, the first prototype for NetCamo was completed capable of camouflaging
the network activities and effectively reducing damage due to cyber-terrorism.
Our prototype has been successfully integrated into a U.S. Navy system.
In 2002 we received DARPA's award on technology transfer. In a recent
ACM international research contest, our graduate student won 2nd place
for his work on this project.
Services/Outreach
Executive and professional training: Senior executive leadership is
responsible for the assets, functions, operations, reputation and financial
viability of their organizations. The performance of virtually every
organization is highly dependent on the viability and integrity of its
data and information flows. It is essential that senior executives understand
the vulnerability of information assets, appreciate the risks to their
organizations and have insight into the resources and strategies that
offer protection. Texas A&M University offers non-degree executive
education short course on issues related to the vulnerability and threats
to enterprise information assets. Professional training would provide
hands-on experience for the technical professionals serving in these
organizations.
Information Security Knowledge Base (ISeKB): An Information Security
Knowledge Base (IseKB) that contains security related data specific
to various sectors of the economy has been designed, developed and implemented
and focuses on two sectors - public service, including utilities infrastructures
and public health, and energy, focusing on oil and gas, and electric
utilities. Telecommunications, Financial services, information technology,
and transportation also are beneficiaries of ISeKB initiatives. A certificate
program and an executive education program are offered for participating
organizations.
Risk Assessment/Risk Management for Communities: Internet and computer
network security are major challenges at the local community level.
Resources to address cyber terrorism threats are often minimal. As a
result, local communities represent a vulnerable and visible target
for infrastructure damage. The CIAS provides risk management services
to identify and assess vulnerabilities, strengths, and assist in the
design of response plans for the local level. Short courses offer guidance
in the development of incident handling skills.
Lab Support
The Distributed
Systems Laboratory in the Department of Computer Science features a
wide array of heterogeneous computing platforms and network protocols
operating in a heavily instrumented environment and is used extensively
for evaluating and testing new and existing security methods for the
CIAS initiative. An Advanced Network Security class is taught using
the laboratory.
A variety
of IAS related classes use the VNE Laboratory for experiments. Research
initiatives currently receiving focus are:
Camouflaged network components - Frustrating the ability of
a cyber terrorist to identify key network components based on traffic
analysis.
Distributed security management - Reducing the threat of denial
of service attack by distributing redundant processes within the network.
Real-time intrusion detection - Immediate detection of a denial
of service attack with a corresponding employment of intelligent software
agents to "swim upstream" and locate the source of an attack.
Mail server virus checking - Detecting the presence of infected
files at the mail server before that are distributed to the addresses.
The CIAS
continues efforts to develop a Web-based virtual-presence exercise which
will allow the student to experiment with various attacks, defenses,
detection mechanisms and operations plans within a "sandbox"
environment, and without a requirement of a physical presence, while
maintaining the structured environment of the laboratory. Thus, the
student is afforded a learning environment that draws on the extensive
experience of the researchers and reflects the latest theoretical and
practical results of their investigations.
Intrasystem
Collaboration
The Center
for Information Assurance and Security is an interdisciplinary initiative
that embraces a wide range of business, science and engineering disciplines.
Collaborations exist between Texas A&M University researchers as
well as leading scholars at other institutions and government agencies.
|