Gerard Briscoe

  1. Self-Organisation of Evolving Agent Populations in Digital Ecosystems.

    Authors: Gerard Briscoe, Philippe De Wilde
    Subjects: Neural and Evolutionary Computation
    Abstract

    We investigate the self-organising behaviour of Digital Ecosystems, because a
    primary motivation for our research is to exploit the self-organising
    properties of biological ecosystems. We extended a definition for the
    complexity, grounded in the biological sciences, providing a measure of the
    information in an organism's genome. Next, we extended a definition for the
    stability, originating from the computer sciences, based upon convergence to an
    equilibrium distribution.

  2. Stability of Evolving Multi-Agent Systems.

    Authors: Gerard Briscoe, Philippe De Wilde
    Subjects: Multiagent Systems
    Abstract

    A Multi-Agent System is a distributed system where the agents or nodes
    perform complex functions that cannot be written down in analytic form.
    Multi-Agent Systems are highly connected, and the information they contain is
    mostly stored in the connections. When agents update their state, they take
    into account the state of the other agents, and they have access to those
    states via the connections. There is also external, user-generated input into
    the Multi-Agent System. As so much information is stored in the connections,
    agents are often memory-less.

  3. The Computing of Digital Ecosystems.

    Authors: Gerard Briscoe, Philippe De Wilde
    Subjects: and Cluster Computing, Distributed, Parallel
    Abstract

    A primary motivation for our research in digital ecosystems is the desire to
    exploit the self-organising properties of biological ecosystems. Ecosystems are
    thought to be robust, scalable architectures that can automatically solve
    complex, dynamic problems.

  4. Towards Autopoietic Computing.

    Authors: Gerard Briscoe, Paolo Dini
    Subjects: Other
    Abstract

    A key challenge in modern computing is to develop systems that address
    complex, dynamic problems in a scalable and efficient way, because the
    increasing complexity of software makes designing and maintaining efficient and
    flexible systems increasingly difficult. Biological systems are thought to
    possess robust, scalable processing paradigms that can automatically manage
    complex, dynamic problem spaces, possessing several properties that may be
    useful in computer systems.

  5. The ABC of Digital Business Ecosystems.

    Authors: Gerard Briscoe, Jo Stanley
    Subjects: Computers and Society
    Abstract

    The European Commission has the power to inspire, initiate and sponsor huge
    transnational projects to an extent impossible for most other entities. These
    projects can address universal themes and develop well-being models that are
    valuable across a diversity of societies and economies. It is a universal fact
    that SMEs in all countries provide a substantial proportion of total
    employment, and conduct much of a nation's innovative activity. Yet these
    smaller companies struggle in global markets on a far from level playing field,
    where large companies have distinct advantages.

  6. Digital Business Ecosystems: Natural Science Paradigms.

    Authors: Gerard Briscoe, Suzanne Sadedin
    Subjects: Neural and Evolutionary Computation
    Abstract

    A primary motivation for research in Digital Ecosystems is the desire to
    exploit the self-organising properties of natural ecosystems. Ecosystems arc
    thought to be robust, scalable architectures that can automatically solve
    complex, dynamic problems. However, the biological processes that contribute to
    these properties have not been made explicit in Digital Ecosystem research.
    Here, we introduce how biological properties contribute to the self-organising
    features of natural ecosystems.

  7. Digital Ecosystems.

    Authors: Gerard Briscoe
    Subjects: Multiagent Systems
    Abstract

    We view Digital Ecosystems to be the digital counterparts of biological
    ecosystems, which are considered to be robust, self-organising and scalable
    architectures that can automatically solve complex, dynamic problems.

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