TO: Jonathan
FROM: Roger

RE: Random patterns


JONATHAN:

Things can only be declared patterned or random by reference to external
parameters.
Neither characterestic is intrinsic in any objective sense.

ROGER:

I agree completely.  Reality is.  'Patterned 'or 'random' is an 
interpretation of experience.  Pysicist Paul Davies defines nonrandom  as a 
number or pattern that can be generated or defined in fewer bits than the 
number or pattern itself. Random is that which can't.  He also says almost 
all numbers are random, but most cannot be proven random.

Do you agree with this definition?  If so, it clearly reinforces the MOQ's 
view that patterns are metaphysical intellectual constructs.  Note that this 
does not lead to solipsism though (Rick), as the patterns are intellectual 
constructs based on experience or events, which are not subjective in the MOQ.

JONATHAN:

Sorry to keep harping back to thermodynamics, but I just now realized
that Pirsig's words are a direct statement of the Second Law which says
that systems tend towards maximum entropy i.e. towards the state which
offers the greatest number of degrees of FREEDOM.
Does this impress anyone else?
 
Evidently nobody else was impressed, because there was no response.
Thermodynamics applies this statistical principle to molecular entities.
In the 1930s, Claude Shannon realized that the same statistical principle
could be applied to abstract entities, thus a whole theory of
information/communication science developed.
I am extremely happy that the same ideas find expression in Pirsig's MoQ.

ROGER

Let me again try to clarify terms.  Entropy is the amount of disorder in a 
system, right?  The lower the entropy, the higher the information and 
pattern. You agree?

Next, The 2nd law can be defined as stating that "closed systems in thermal 
equilibrium should spend nearly all their time at or near maximum entropy."  
Again, as there are lots more disordered states than ordered, the 2nd law is 
a statistical probability. For example, there are 495 trillion more ways to 
disorder a simple pack of 52 cards than there are to order them.  
Statistically speaking, the entropy should be pretty constant on the deck 
unless you start with the totally contrived and unlikely occurance of the 
cards being sorted in order.  You ok here as well?

My question is on your statement that "systems tend towards maximum entropy 
i.e. towards the state which
offers the greatest number of degrees of FREEDOM."  Is an unpatterned state a 
higher degree of freedom?  I agree it is a more likely arrangement, but a 
freer arrangement?  Could you explain more?

JONATHAN (from your website):

The laws of diffusion and the gas laws provide a useful and definitive way of 
describing the behaviour of populations of molecules. Yet, the "obedience" of 
the population to those rules is no more than an expression of the totally 
random movements and collisions of individual molecules. There is no external 
cause or force which causes a group of gas molecules to spread out by 
diffusion. Furthermore, the work done by an expanding gas is an expression of 
the same random behaviour. This begs the question "do the individual 
molecules really behave randomly?" On the one hand, that was our starting 
hypothesis. On the other hand, that behaviour causes the population to behave 
non-randomly. 

ROGER:

Slow down.....  Pressure, volume and temperature (and entropy) are all 
emergent statistical averages of the population based upon the specific 
context of the experiment.  They are patterns that emerge from statistical 
random interaction.  But the context of the experiment is totally contrived.  
We define the experiment.  We get the gas, build the container, put the gas 
in the the container and set up the context in which volume or temperature or 
disorder have meaning.

We are creating a pattern from our experiment that emerge statistically out 
of the unpatterned interactions reacting with our test conditions. Do you 
agree?  

JONATHAN:

The above contradiction may in fact stem from two inherently contradictory 
world views, which are both incorporated in scientific theory. 
Newtons mechanics regards matter as inherently stable, following constant 
trajectories which only change in response to changes in external forces. 
Thermodynamics says that all matter has an inherent tendency to dissolve into 
disorder unless it is somehow held back.

ROGER:

Hmmm...... I would agree with your take on Newton, but would add that 
complexity theory adds that our knowledge of the interactions and 
trajectories is imperfect, and hence we lose the ability to pattern or 
predict anything about individual particles.  Complexity overwhelms our 
ability to pattern.  However, statistics comes to our rescue and new emergent 
qualities (volume, pressure, etc) can be patterned.

Entropy or disorder is just another example of statistical emergence.  With 
52 cards, you can be sure (495 trillion to one) the distribution is random.  
With billions of particles, the certainty is virtually infinite.  I would say 
that thermodynamics says that that which is ordered is likely to get 
disordered.  That which is disordered is likely to stay disordered. 

JONATHAN:

Randomness (lack of patterned behaviour) is not inherent to the system! It is 
a perception of the system. We can consider a gas as a large number of 
individual randomly-moving molecules, or as an elastic fluid substance with 
the properties summarized by the gas laws. The difference between the random 
and non-random viewpoint is one of perception, and has no basis in the 
properties of the gas. Thus, randomness cannot be considered an objective 
property of the whole system.

ROGER:

Agree.

JONATHAN:

Einstein firmly held that there must be causal mechanisms that determine the 
statistical distributions. Einstein would have said that molecular 
statistical mechanics was different, since it would be theoretically possible 
to track each individual molecule's movements and collisions, and explain its 
path in terms of classical mechanics. The dogma of quantum mechanics is that 
an equivalent analysis of subatomic particles is theoretically impossible.

But in the final analysis, the question may not even matter. Quantum 
mechanics has no need for the classical causal mechanism Einstein sought, and 
thermodynamics has no need for a classical analysis of individual molecular 
movements. In both cases, statistical considerations provide a perfectly 
adequate starting point.

ROGER:

Adequate to explain reality.  But it didn't meet Einstein's definitions of 
the reducibility of a good quality theory.  The highest quality 
interpretations of reality are not ultimately reductionist or deterministic.  
Albert didn't want to accept this though did he?  He somehow could accept it 
as long as he could cling to a theoretical belief that the individual 
Brownian motion could be tracked.  Quantum reality forced him to discard that 
(probably incorrect) view. (or have I misstated something here?)

JONATHAN:

....ultimately, when it comes to deciding on which definition of cause best 
suits the science of thermodynamics, the tautological description of chemical 
reactions given above makes no distinction. Instead, the cause of change 
becomes an all encompassing concept which transcends any division of meaning.

ROGER:

What does the last sentence mean?

Oh, BTW the end of your paper goes on to explain one of the classic examples 
that contradicts, or perhaps complicates, thermodynamics.  Living beings 
resist  entropy.  According to Ilya Prigogene, they bring "order out of 
chaos" via irreversible chemical reactions creating self-amplifying feedback. 
 There is one other major weakness in themodynamics, namely that there is a 
lack of scientific understanding of gravitational entropy.  The prevalent 
view though is that gravity becomes more ordered with more information with 
increasing entropy.  

In terms of the MOQ, the first two levels of patterns can be said to be 
defined by exceptions to entropy.  Gravity-- the weakest force-- to a large 
extent creates the inorganic level of galaxies, stars, our world, and our 
energy source (the sun).  Chemical feedback loops create life.  I wonder if 
this pattern continues within the other two levels?

I have other thoughts and brainstorm ideas on the topic, but I better stop 
here for now. 

Let me know your thoughts and let me know where I have misinterpretted you.

Roger 



 

 






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