Combat Effects

 

J.P. Ballanger, Raytheon Company, JP_Ballenger@res.Raytheon.com

 

Are you familiar with the terms, "LFORRAT" and "LHELMRAT?"  If not, what do these terms bring to mind?  You might guess that these are ancient elf or dwarf words taken from the works of J. R. R. Tolkien, however, you would be incorrect. You might also guess that these are technical vector control terms used in conjunction with the eradication of vermin, but again, you would be incorrect.  Rather than keep you guessing, let me solve the mystery.  These are terms taken from the new book, Predicting Combat Effects, authored by my good friend, colleague, and a past president of MAS, Dr. Dean S. Hartley, III. 

 

Dean's book was published in 2001 by INFORMS as part of the Military Applications Society's Topics in Operations Research.  The book debuted at the INFORMS national meeting in Miami this past fall, and Dean was there to provide to autographed copies.  Given that you read Phalanx, I believe that it is safe to assume that you have an interest in military operations research, and given an interest in military OR, I would like to highly recommend that you purchase a copy of Predicting Combat Effects for your personal library.  It is a reference that should be nearby any serious practitioner or student of military OR.

 

In his search for a theory of combat, Dean's research examined 600 battles in the Land Warfare Database (LWDB) produced by the United States Army Concepts Analysis Agency (CAA) and additional data from 200 battles from other sources.  The book is an excellent treatise on combat theory and combat attrition corroborated by actual battlefield data.  In the introduction, Dean states,

 

"War represents a large number of experimental situations in which external influences are minimized.  The participants within each experiment are relatively strongly focused on common objectives as compared to the participants in other experimental situations, thus reducing the need to consider the behavioral impact of extraneous variables, such as the number of children and the economic status of the participants.  Further, when battles, the smallest units of war, are considered, the conduct of each experiment is confined to certain modalities of combat.  Another way of saying this is that battles are simple enough and represent, nearly enough, discrete events that they can be recognized, compared and contrasted.  Such examples are lacking in most areas of human behavior.  Thus if any scientifically verified principles of human behavior may be discovered, those applying to warfare should be easiest to discover."

 

Additionally, each copy of Predicting Combat Effects comes with a CD that contains Dean's data and analysis programs.  As Dean states in the appendix,

 

"The entire set of data used in this research is included because the significance of the results is so great.  The availability of the data will allow independent confirmation of these results."

 

Now, I return back to my original question regarding the terms, "LFORRAT" AND "LHELMRAT."  These terms are central to Dean's analysis throughout the book, and I leave their meanings for you to discover as you enjoy reading and studying Dean's book.

 

Land warfare battles of the past century have been mostly linear and symmetric.  Attrition in such previous conflicts derived from a sort of "kinetic friction" as two large masses met with the "larger mass" normally having the advantage.  As we begin the 21st Century, land warfare to date has been mostly nonlinear and asymmetric.  This new complexion of land warfare does not imply that combat attrition study is an artifact of the past, as some have been inclined to think.  Quite the contrary, this new complexion of land warfare beckons military OR professionals to develop new attrition models applicable to nonlinear and asymmetric battles. These new models may or may not be Lanchester theory based.  Just as there is non-Euclidean geometry and non-Newtonian physics,  there will most likely be new non-Lanchestrian attrition models.  I am not aware of any non-Euclidean mathematician who first did not study Euclid, nor am I aware of any non-Newtonian physicist who did not first have a firm foundation in Newtonian principles.  Such is the manner of science.  New modelers will begin their quests from a firm foundation in current day scientific knowledge.

 

Our current focus is on attriting terrorists.  Our battles against terrorists are more nonlinear than linear, and our enemy poses more asymmetric threats than symmetric.  Nonetheless, there is attrition.  This new warfare produces casualties just like the old warfare of the past.  Many publicized predictions of large numbers of United States casualties and a protracted war preceded our current war in Afghanistan.  These predictions have been grossly wrong.  Probably, most of these incorrect publicized predictions were judgmental and made by nonscientists whose qualitative judgement was most likely rooted in our experience in Vietnam.  However, there is a definite need for accurate scientific combat predictions in the development of both military and political strategy.  Such scientific predictions will be based on new models or old models that have been revised to incorporate nonlinear and asymmetric warfare.  I am confident that these new or revised models must emanate from our ranks. Let's roll!