tag: order
from a GMO soybean site
John Hopkins → 01::February::2010 08:54 → cats::thesis
2. Maintaining identity of product
a. Each field must be identified with a number or other designation on the field application form and other pertinent documents.
b. Maps showing field identities and locations must be maintained and furnished to crop inspectors.
c. Field inspected product must be positively identified at all times.
d. A bin or lot number must identify all bins.
e. If product is bagged, bags must be identified with a stenciled lot number or a tag securely fastened to the bag.3. Record requirements
The following records must be maintained:
a. Field number
b. Amount of product harvested
c. Assigned bin number
d. Record of any product transfers
e. Assigned lot numbers
f. Copies of all completed agency documents
desire, complexity, simplicity, determinism (mix-up mash-up)
John Hopkins → 24::January::2010 10:01 → cats::thesis
Today, mulling the difference between technological determinism (as a self-propagating system on its own immutable trajectory) and the reciprocal idea that human social systems selectively construct the systems of technology they ‘desire’ (subject to all the variability of the particular social system within which the technology is embedded). Then, within that selection process, thinking about the process of development and the general trend towards greater complexity. Do these processes ever trend generally to greater simplicity? Does desire ever, on a wide social scale, ever become directed to less material abundance? Is material security predicated with amassing more-than-sufficient material wealth? Or do society-wide technological systems collapse towards simplicity only in cases of ‘natural’ disaster.
[Complexity and simplicity are used here as general indicators of the depth and breadth of the techno-social system's process of provision and production that leads to services, situations, or products deemed necessary for participants. Metrics of complexity would include geographic proximity, ease of access, energy density, and the number of substantive steps required to produce a product or create a desired energy flow. The relative necessity of a product is highly subjective and varies widely between different systems. Necessity is a cultural construct. Complexity may be indicated by the number of discrete steps that can be described that a process passes through -- steps/degrees of flow alteration.]
When examining a production system, the primary question would have to be, “does this process end with a net gain of energy that can be utilized for the evolutionary advantage of the social system?” This question itself would suggest the inevitable rise of an elite subgroup when the wider population reaches certain environmental carrying thresholds — where that (evolutionarily optimal) subgroup is carried by the energy-providing activities of a wider group. But this is another issue to look at later).
The existence of (the) ‘natural disaster’ suggests that the state of a particular techno-social system may be seen essentially as the (ordered) organization of flows to keep back natural chaotic forces or to push those natural forces along certain (technologically-defined) pathways. Does this make the system merely at the affect of natural laws, and thus binding it into a materially deterministic framework? nah, that ignores quantum, with its statistical outcomes. Although obviously, any techno-social system is bound to thermodynamics and all other prescribed or yet unknown ‘natural laws.’
System collapse to simplicity is obviously a result of the ‘natural’ disaster precipitated by war (as an extension of human survival mechanisms?). War is the impingement of one techno-socially organized and directed expression of ordered energy onto another — with one set of system pathways disrupted to greater simplicity. Loss could be defined by the destruction of the internal structure for the directing of cumulative energy of participants in that social system. Winning is essentially acquiring access to the total (or partial) energy sources of the losing social system. This includes individuals, and all the pathways of energy flow that they have constructed — these are then directed, incorporated, into the winning system.
The whole deterministic model seems to focus on material interpretations — that is, metrics of ‘advance’ that will happen along an apparently calculable technological trajectory. Rather, as outlined here, there are conditions of technological advance and retreat that are framed by other factors which make the prediction of a trajectory highly inaccurate. The first being the level of complexity of the techno-social systems, the second, the efficiency of that system, and the third, the stability. All of these factors fluctuate over time and are deeply embedded in a milieu of human factors. The general trend, however, looking at the broad arc of the history of technology is to increasing complexity, variable-yet-generally-increasing control by social systems of a wider range of ‘natural’ energy flows. Is it deterministic to say that there will be an increase in complexity of any techno-social system unless interrupted by natural disaster? [Clearly, the complexity of a (the!) techno-social system is limited, as the energy basis for the system is not infinite: what does that imply?]
What motivates this evolution to increasing complexity? The short answer could be the drive to reproductive advantage — evolutionary motivations for life to not just continue, but continue with advantage over the competition. It is easy to see that the affect of this drive could be interpreted as having its own character and endless source of ‘forward’ motivation. But clearly the ultimate source for that is, again, the impelling force of life-systems to simply continue and continue with ever-greater complexity (creating an ever-widening ring of increasing entropy). So, the ‘explanation’ for technological change, as a social phenomena, ultimately rests, as do all social systems, on the fundamentals of living systems.
Vastly complex systems obscure the actual and perceived level of reproductive advantage — for example, while modern Western medical advances have increased overall abilities for successful propagation of the species, the wider technological system on which that (medical)sub-system depends generates substances (and situations) toxic to reproductive viability and life in general. One would then have to argue that the reproductive viability increase is for a limited number of the total population. Those remaining after the cull who benefit from technologically augmented survival, while the biologically and energetically compromised remainder are ‘used up’ in supporting the few. The increase of complexity may be directly correlated to the larger absolute number of people, combined with the drive to absolutely optimize reproductive capabilities of those in the positions of power at the same time as the elimination of all actual or potential competing life-forces.
the American Dream is only to survive
John Hopkins → 01::January::2010 08:17 → cats::thesis
David Brooks, columnist at the New York Times writes in his commentary on New Years Day:
Many people seem to be in the middle of a religious crisis of faith. All the gods they believe in — technology, technocracy, centralized government control — have failed them in this instance.
I have always enjoyed his pragmatism and basic awareness of a wider historical context. It frames the American Way as (merely another) expression of a global continuum of human presence on the planet. And he seems largely to avoid the hybridized reli(geo)-political Destiny’s Child(ish) mentality that so pervades the fragmentary remnants of mediated public discourse in this declining nation-state.
I heartily agree with his explicit suggestion that an issue central to the balance between the individual and the State lies in the strength of faith in centralized authority, and the concomitant surrender of personal autonomy, obligation, and responsibility. The question of larger or smaller (more-or-less pervasive) government is embedded in the larger question of the presence and operation of all (centralizing) social structures — ones which are making inexorable advances in dominating the fabric of the techno-social structure of the country and the globe. As has always been the case, there is no monumental State or any other structure of social organization that can be everything to all people all the time forever. He is very correct to suggest that the great moral issue relates to the taking of personal responsibility — as an expression of autonomy from, not dependence on, any wider social system, (and I emphasize here, not only the State — it is only one particular label for social organization).
The purveyors of technology market their goods to the participants of various techno-social systems as a means to instill control and thus order on the chaotic and threatening world ‘out there.’ The marketing plan, now in its 2.500010 millionth year, promises that if you surrender some of your life-energy to us, we will guarantee that you will live longer. The explicit reward for purchasing is a few extra moments to procreate successfully. There is no mention whether this extra length of life is more or less than the time surrendered to the system — you have to calculate that yourself. The system is hierarchical with many (dis)functional) layers, with some surrendering more time, others using more or less time to manage that time surrendered by thousands. The point is — the same that Brooks makes — that the surrendering process, the giving away of personal responsibility in the process of confronting the Unknown, is where maturity fails. All the complex protocols of the advanced techno-social system that we participate in will not alter the fundamental characteristic of the cosmos: in archaic lingo things happen, have happed, are happing. And, as I remind students and others whenever I have the chance, technology fails.
Maturity comes from facing what is not yet known, learning from it, that and the presumed development of wisdom that experience brings over time. Learning is a process that arises in the embodied interaction of the Self with the unknown (or the Unknown — it is an elemental feature of the (human-sensed) cosmos). This interaction may exhibit different levels of maturity. A mature being, having experienced numerous encounters with different aspects of this Unknown will realize that this is how it goes — there is little or no chance that a new encounter will be any different — so, a degree of stoicism, with a calculated strategy to do what is individually possible would seem best. Immature encounters with that Unknown give rise to the anger of being affronted, snubbed, or even snuffed by the cosmos itself. The effrontery of the Unknown knows no limit. And when the Unknown is conjugated with the infinite, human anger is shown to be what it is, a destructive and ultimately pointless diversion of life itself.
Learning is also a shared process, or can be. Where the autonomous individual connects with those others around and compares notes. Collective experience does sometimes (conditionally) improve on individual experience. Completely ignoring the wisdom garnered from others makes for a very unstable existence, one that is counter to any organized social system. It may be fun, but it is risky and a bit mad.
(Back to one of the core questions) — why does technology fail? It fails because humans, those who form technology do not have access to infinite amounts of energy with which they might control all the rest of the chaotic energy of the cosmos. It takes energy to impose order on chaotic flows. No matter the height of energy-tapping techno-hubris, there is always a bigger flow of energy out there, waiting to obliterate the set of carefully organized protocols of power of puny humans. Things happen, have happed, are happing. All the time. At all scales, every where. Statistics are for reductive hindsight rumination, not prediction, as prediction is merely part of that marketing strategy. Buy into this now and you will gain a procreative edge. Your technology will not fail. But keep in mind, things happen, have happed, are happing. Of course, more things will happen when there is more autonomy. Hmmm. This is the problem.
And anyway, is death really vanquished when it temporarily disappears from the artifice of this ultimately short-term effort to control the cosmos? Of course, length of life is correlated with improved ability to ensure that life goes on into a future: that basal of all paybacks, continuance. But is there a correlation between clock-timed length of life and quality?
He had a good life.
or
He had a long life.
or
He had a bad life.
or
He had a short life.
or a combination of the above…
We face a choice in every moment where to place our individual and collective lives on a sliding scale between a dulling surrender to the creations of human artifice as brought about at some level in any social structures and the high-intensity madness of pure autonomy.
Into The Cool
John Hopkins → 21::November::2009 10:28 → cats::bibliography, thesis
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The Second Law of Thermodynamics, a foundation of Western science, circumscribes the role of energy and order in the observed behaviors of the cosmos. (It’s not just a recommendation, it’s The Law!) Into the Cool is an elegant and well-researched book that makes the linkage between this law and the fundamentals of life as a dynamic energy re-organizing process. I was frequently using the image of concentration and rarefaction in my exploration of energy-as-driving metaphor for the cosmos at all scales. This is a classic error — mistaking the stasis of Yin and Yang for the actuality that those ‘conditions’ were merely perihelion points in a dynamic system as illustrated by the taijitu symbol. Rarefaction and concentration are dynamic and reciprocal conditions in a non-equilibrium thermodynamic system at all times and at all scales — a sustained condition that can only be ‘resolved’ by the application of a theoretical limit on the system which makes it a closed and tending-to-equilibrium system. With the reciprocal maxim Nature abhors a gradient, the authors frame the issues surrounding energy and life. That is, observing the cosmos at all scales, it is noted that entropy, or the gradual descent into complete isotropic ‘disorder’ is a tendency — at the same time there is a tendency for ordering driven by gravity (and the rest of the fundamental interactions of physics). Defining life, and consequently, defining the role of life in this dynamic interplay of processes is essentially the same goal. Life could be defined by that which causes anisotropy to develop in the cosmos. Certainly anisotropy is a necessary condition for life — necessary but perhaps not sufficient — although sufficiency, well, the existence of anisotropy at all scales plays a crucial role in life — without it the universe would be exhibit no difference and would thus not be comprehensible.
The continuously-variable energy fabric upon which all is drawn in may not logically be sufficient, but in the poetic schema of be-ing and presence, I would say that it was sufficient. |
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Schneider, Eric D. and Dorion Sagan 2005, Into the Cool: Energy Flow Thermodynamics and Life, The University of Chicago Press, Chicago
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energy/complexity
John Hopkins → 07::October::2009 10:19 → cats::thesis
Energy has always been the basis of cultural complexity and it always will be. … the past clarifies potential paths to the future. One often-discussed path is cultural and economic simplicity and lower energy costs. This could come about through the “crash” that many fear — a genuine collapse over a period of one or two generations, with much violence, starvation, and loss of population. The alternative is the “soft landing” that many people hope for — a voluntary change to solar energy and green fuels, energy-conserving technologies, and less overall consumption. This is a Utopian alternative that, as suggested above, will come about only if severe, prolonged hardship in industrial nations makes it attractive, and if economic growth and consumerism can be removed from the realm of ideology. — Joseph A. Tainter
There is much to explore in the ideas around organizational complexity/simplicity correlated with high/low energy requirements for a system — essentially basic thermodynamics (it always comes down to this). If the wider (widest) scale of human systems could scale social complexity down, the energy requirements would experience a correlative drop. But this is a very substantial IF. And it would mean that the energy reach of the average individual would consequently contract. And human natures seem to preclude any sacrifice of control that is part of the order need. China fancies itself victorious, clambering over other nations to arrive soon at the top of the influential complexity heap, but it will soon discover that the price for this status is, literally, high. And it too, as a complex system, will gradually implode again. Though likely not after extracting, demanding, a high flow, or tribute, as the US is now doing, from the global system. That flow comprising the over consumption and thus concentration of widely distributed materials which now, in their post-use state leave the globe energetically worse off. In the end this is not an issue of nation-state guilt, it is simply the evolutionary state of the tool-wielding bipedal mammalian species. The (over-consuming) developed world crosses many demographic and geographic borders, while likewise the under-consumers are widely distributed.
The human species may be seen as having evolved in the service of entropy, and it cannot be expected to outlast the dense accumulations of energy that have helped define its niche. Human beings like to believe they are in control of their destiny, but when the history of life on Earth is seen in perspective, the evolution of Homo sapiens is merely a transient episode that acts to redress the planet’s energy balance. -– David Price
Cultural Systems
John Hopkins → 03::October::2009 09:55 → cats::bibliography, thesis
A few minor references to energy and socio-cultural systems.
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In order to evolve, a biological or a cultural system must obtain energy in increasing quantities from the external world. In the process of evolving, these systems move in a direction opposite to that of the cosmos as a whole as specified by the Second Law of Thermodynamics: i.e., they move toward greater concentrations of energy and increasing structural complexity. — Leslie White
White, Leslie A. 1975, The concept of cultural systems: a key to understanding tribes and nations, Medium Aevum monographs, Columbia University Press, New York.
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This view is simple, but outlines the fundamental situation. Research in thermodynamics (Prigogine, etc) has looked at the actual counter-intuitive problem of living systems countering thermodynamics. It may come back to the mystical view of Simone Weil:
Two forces rule the universe, light and gravity.
with gravity driving the coalescing of matter, the concentration of energy, or fluctuating densities (or simply fluctuation) of the cosmos. And Light, well, what may or may not be said about Light.
Energy and economic myths
John Hopkins → 06::September::2009 11:06 → cats::bibliography, thesis
Energy and Economic Myths, Nicholas Georgescu-Roegen, Elsevier Science & Technology, 1977. ISBN 0080210562
Georgescu-Roegen critiques the mechanistic basis for much economic theory (which predominantly focuses on the movement of goods — a state which, thermodynamically, appears as a reversible process — and one which leads, at least conceptually if not in fact to the infinite cycle from production to consumption). It would appear that our current situation is the result of that infinite cycle occurring in a locally finite system.
this book leads to:
More heat than light : economics as social physics, physics as nature’s economics, Mirowski, Philip, Cambridge, Cambridge University Press, 1991. ISBN: 0521350425 (hardback)
and the reflection from Borges:
It is useless to answer that reality is also orderly. Perhaps it is, but in accordance with divine laws – I translate: inhuman laws – which we never quite grasp. Tlön is surely a labyrinth, but it is a labyrinth devised by men, a labyrinth destined to be deciphered by men.
and in the introduction some good inspiration coming from Mirowski in his struggle to bridge between physics and economics. understanding that economics is an important dimensional descriptor of the techno-social system is a nice advance. although the number of economists who have made this connection are few, and the bulk of the discipline are still mired in juggling abstractions. he extends his argument, marking the parallel between the terms value in economics and energy in physics. and later, to developing the concept of energy as critical to understanding economics. this is a good find indeed! and it might end up, indeed, studying the principles of conservation too much and I end up a conservative. (no chance of that, as no one ends up as anything but energy anyway…)
on pages 56-57 there is a symmetric coffee-colored ring, a primitive of a Rorschach test, and on 58-59, some bits of roll-your-own tobacco. the last record of being checked out was 1998. more than a decade ago.
to the indeterminacy of human tendencies towards abstraction:
In describing his ideas on electromagnetic fields,
The substance here treated must not be assumed to possess any of the properties of ordinary fluids except those of freedom of movement and resistance to compression. It is not even a hypothetical fluid which is introduced to explain actual phenomena. It is merely a collection of imaginary properties which may be employed for establishing certain theorems in pure mathematics in a way more intelligible for many minds … I wish merely to direct the mind of the reader to mechanical phenomena which will assist him in understanding the electrical ones. All such phrases in the present paper are to be considered as illustrative, not explanatory. In speaking of the Energy of the field, however, I wish to be understood literally. — James Clerk Maxwell
