The Law of Maximum Entropy Production or Why the World is in the Order Production Business
The solution to the puzzle is found in two parts. The first is the recognition of an important point found implicitly in the BertalanffySchroedingerPrigogine contribution not pointed out explicitly by them. In particular, since to come into being and persist an autocatakinetic system must increase the rate of entropy production of the system plus environment at a sufficient
The discontinuous increase in the rate of heat transport that follows from the disorderto order transition in a simple fluid experiment similar to that shown in Figure 4. The rate of heat transport in the disordered regime is given by, and is the heat transport in the ordered regime [3.1 x 104H(cal x cm.2 x sec1)]. (From Swenson, 1989a. Copyright 1989 IEEE. Reprinted by permission). 
rate to satisfy the balance equation of the second law, ordered flow, according to the balance equation, must be more efficient at dissipating potentials than disordered flow (Swenson, 1989d, 1997a, b; Swenson & Turvey, 1991). Figure 8 shows the dramatic increase in the rate at which the potential is minimized, for example, in the Benard cell experiment in the transition from the disordered to ordered regime, and the balance equation tells us that this is precisely what must happen.
Now this becomes important only with the second part of the solution
which is the answer to a question that did not arise in the BertalanffySchroedingerPrigogine
discourse, nor was it a question that classical thermodynamics
ever asked. In particular, it is which path(s) out of available
paths will a system take to minimize potentials or maximize the
entropy? The answer (the "law of maximum entropy production")
is the path or assembly of paths that minimizes the potential
(maximizes the entropy) at the fastest rate given the constraints
(Swenson, 1988, 1989d, 1991a,b, 1997a,b; Swenson & Turvey,
1991), and like the second law, the law of maximum entropy production
is intuitively easy to grasp and empirically demonstrate. Imagine
any out of equilibrium system with multiple available pathways
such as a heated cabin in the middle of snowy woods (Swenson &
Turvey, 1991). In this case, the system will produce flows through
the walls, the cracks under the windows and the door, and so on,
so as to minimize the potential. What we all know intuitively
(why we keep doors and windows closed in winter) is that whenever
a constraint is removed so as to provide an opportunity for increased
flow the system will reconfigure itself so as to allocate more
flow to that pathway leaving what it cannot accommodate to the
less efficient or slower pathways. In short, no matter how the
system is arranged the pattern of flow produced will be the one
that minimizes the potential at the fastest rate given the constraints.
Once the idea is grasped, examples are easy to proliferate (e.g.,
see also Dyke, 1997; Goerner, 1994; Peck, in press).
What does the law of maximum entropy production have to do with
order production? Given the foregoing, the reader may have already
jumped to the correct conclusion, namely, if ordered flow
produces entropy faster than disordered flow (as required by the
balance equation of the second law), and if the world acts
to minimize potentials at the fastest rate given the constraints
(the law of maximum entropy production), then the world
can be expected to produce order whenever it gets the chance (Swenson,
1989d, 1991a, b, 1997a, b; Swenson & Turvey, 1991). The world
can be expected to act opportunistically in the production of
dynamical order because potentials are thereby minimized at a
faster rate. The world, in short, is in the order production business
because ordered flow produces entropy faster than disordered flow,
and this, in most direct terms, provides the nomological basis
for the reconciliation of the otherwise two incommensurable rivers.
Rather than being anomalous with respect to, or somehow violating
physical law, the "river that flows uphill" that characterizes
the active epistemic dimension of the world is seen to be a direct
manifestation of it. The constitutive logic of ecological relations
as expressed in autocatakinesis and the minimal ontology is seen
as a direct consequence of universal law.
The Nomological Basis for Semantic Content
A mostly implicit point so far that bears brief
elaboration is the relationship between order production and the
development or extension of spacetime. In particular, the spontaneous
production of order constitutes a dramatic increase in spacetime
dimensions. This is well demonstrated, again, by the Bénard
experiment (see Figures 5) where in the disordered regime the
intrinsic spacetime dimensions are defined by mean free paths
distances and relaxation times (the distances and times between
random or disordered collisions) on the order of 108 centimeters
and 1015 seconds, while in the ordered regime, in contrast, the
intrinsic spacetime dimensions are of the order of seconds and
centimeters. It takes the fluid some seconds to make the autocatakinetic
cycle that constitutes each cell and the distances is measured
in centimeters (see Figure 6). Significantly, these new spacetime
dimensions do not exist in the disordered regime. They literally
come into being with the production of order, and this understanding
takes us to the main point of this section.
In particular, if we understand from universal principles that
the world acts, in effect, to maximize its extension into spacetime,
to produce as much order as possible, we can see immediately what
intentional dynamics provide. By providing the means for linking
together or accessing and dissipating, discontinuously located,
or nonlocal, potentials in the building of order, intentional
dynamics provides access to vast otherwise inaccessible regions
of spacetime, and this is precisely what intentional dynamics,
or ecological relations do. The autocatakinesis of nonliving
systems such as Bénard cells, tornadoes, or dust devils
are maintained, or determined, with respect to local potentials
within which they are proximally, and continuously, embedded.
If the potentials are removed (e.g., the heat in the Bénard
case) they collapse and "die". In contrast, it is the
signature of the intentional dynamics of living things, or the
ecological relations that characterize them, that they are maintained
with respect to nonlocal, distal, and discontinuous potentials
through the use of meaning or "information about". Furthermore,
if the autocatakinetic relation that characterizes the intentionality
of the epistemic act is a directedness towards the maintenance
of invariant or persistent relations with distal potentials then
there must be a lawful basis for semantic content in the world
for meaningful specification in the proximal present of intentional
ends in the distal future.
The basis for this was first well appreciated by Gibson (1986/1979;
Swenson & Turvey, 1991; Turvey & Shaw, 1995) with his
ecological conception of information. Living things are macroscopic
systems that maintain their autocatakinesis through the context
of macroscopic flow, and what Gibson correctly concluded was that
the place to look for meaningful content was not in the normal
physical descriptors of individual particles, but instead in the
variables of the flow itself. Specifically, what he recognized
was that the ambient energy flows (e.g., optical, mechanical,
chemical) in which living things are embedded carry invariant
macroscopic properties that lawfully specify, and thus carry semantic
content with respect to, or 'information about', their sources.
This information can then be used directly in the lawful proximal
control of behavior towards distal intentional ends.
Optic flow variables, for example, can lawfully specify 'timetocontact'
(e.g., Lee, 1980; Kim et al. 1993; Swenson, 1997a), or a chemical
or optical gradient can lawfully specify the source of food (see
also Swenson & Turvey, (1991) on the origin of vision), and
diffusion and mechanical fields (e.g., see Peck, (in press) on
the origin of hearing) can be used in similar ways (e.g., see
Lee, 1980; Kim et al. 1993; Swenson, 1997a; Swenson & Turvey,
1991; Turvey & Shaw, 1995). A further elaboration of this
point can be made with the case of "timetocontact",
a particularly crucial and widespread requirement for the intentional
dynamics characterizing many


