Tensor-Centric Warfare II: Entropic Uncertainty Modeling
- 1 Joint and Operations Analysis Division, Defence Science & Technology Group, Adelaide, Australia
- 2 Joint and Operations Analysis Division, Defence Science & Technology Group, Adelaide, Australia
- 3 Cyber and Electronic Warfare Division, Defence Science & Technology Group, Adelaide, Australia
Abstract
In the first paper of the tensor-centric warfare (TCW) series [1] , we proposed a tensor model of combat generalizing earlier Lanchester-type systems with a particular emphasis on contemporary military thinking, including the distributed C4ISR system (Command, Control, Communications, Computing, Intelligence, Surveillance and Reconnaissance). In the present paper, we extend this initial tensor combat model with entropic Lie-derivative machinery in order to capture some aspects of this deep uncertainty, while, in the process, formalizing into our model military notion of symmetry and asymmetry in warfare as a commutator , also known as a Lie bracket. In doing so, we have sought to shift the question from the prediction of outcomes of combat, upon which previous combat models such as the Lanchester-type equations have been typically constructed, towards determining the uncertainty outcomes, using a rigorous analytical basis.
- Ivancevic, V., Pourbeik, P. and Reid, D. Tensor-Centric Warfare I: Tensor Lanchester Equations. ICA.
- Alberts, D., Garstka, J. and Stein, F. (1999) Network Centric Warfare: Developing and Leveraging Information Superiority. CCRP.
- Reid, D.J., Goodman, G., Johnson, W. and Giffin, R.E. (2005) All That Glisters: Is Network-Centric Warfare Really Scientific? Defense and Security Analysis, 21, 335-367. https://doi.org/10.1080/1475179052000345403
- Reid, D.J. (2017) An Autonomy Interrogative. In: Abbass, H.A., Scholz, J. and Reid, D.J., Eds., Foundations of Trusted Autonomy, Springer, New York, Chapter 21, 365-391.
- Rittel, H. (1973) Webber: Dilemmas in a General Theory of Planning. Policy Sciences, 4, 155-169.
- Jomini, A.H. (2007) Baron de: The Art of War. Dover Edition, Dover Publications, New York.
- Von Clausewitz, C. (1832) On War. Princeton Univ. Press, Princeton.
- Lanchester, F.W. (1916) Aircraft in Warfare: The Dawn of the Fourth Arm. Constable, London.
- Lanchester, F.W. (2000) Mathematics in Warfare. In: Newman, J., Ed., The World of Mathematics, Vol. 4, Simon and Schuster, New York, Dover, 2138-2157.
- Osipov, M. (1995) The Influence of the Numerical Strength of Engaged Forces on Their Casualties. In: Military Operations Research Society, Eds., Warfare Modeling, Helmbold, R.L. and Rehm, A.S. Trans., John Wiley & Sons, Hoboken, 290-343.
- McLemore, C., Gaver, D. and Jacobs, P. (2016) Model for Geographically Distributed Combat Interactions of Swarming Naval and Air Forces. Naval Research Logistics, 63, 562-576. https://doi.org/10.1002/nav.21720
- Ivancevic, V. and Ivancevic, T. (2006) Geometrical Dynamics of Complex Systems. Springer, Dordrecht. https://doi.org/10.1007/1-4020-4545-X
- Ivancevic, V. and Ivancevic, T. (2008) Complex Nonlinearity: Chaos, Phase Transitions, Topology Change and Path Integrals. Springer, Berlin.
- Ivancevic, V. and Reid, D. (2015) Complexity and Control: Towards a Rigorous Behavioral Theory of Complex Dynamical Systems. World Scientific, Singapore.
- Ivancevic, V., Reid, D. and Pilling, M. (2017) Mathematics of Autonomy: Mathematical Methods for Cyber-Physical-Cognitive Systems. World Scientific, Singapore. https://doi.org/10.1142/10716
- Wikipedia (2017) Battlespace.