For some reason, using reasoning, some people just absolutely insist on some artificial hierarchy. — Rich
So do the 3 different forms of reasoning have individual value, or are they dependant on eachother? — MonfortS26
What do you mean when you say philosophy splits off deduction? Didn't Aristotle create deductive reasoning before the scientific method? Is there a way to map out different "degrees of rigor" where science isn't applicable? — MonfortS26
Deductions are one of two species of argument recognized by Aristotle. The other species is induction (epagôgê). He has far less to say about this than deduction, doing little more than characterize it as “argument from the particular to the universal”. However, induction (or something very much like it) plays a crucial role in the theory of scientific knowledge in the Posterior Analytics: it is induction, or at any rate a cognitive process that moves from particulars to their generalizations, that is the basis of knowledge of the indemonstrable first principles of sciences.
https://plato.stanford.edu/entries/aristotle-logic/
Isn't that just the foundation of the scientific method though? — MonfortS26
It is estimated that in temperate latitudes an increase of 10% is achieved, freeing more land for wildlife. — tom
Yes, I was aware that those were apokrisis's quotes, but I wanted to address my response to you, since this is your thread. — Bitter Crank
Would you agree that the major disagreement between our views comes from you leaning more relativist than me? — inquisitive
If we can clearly show that a certain thing creates the most well-being and well-being is the thing we optimize for, then we have established a moral truth. — inquisitive
To be honest with you, I think we've reached the point where I've exhausted my current knowledge of the underlying philosophical concepts as well as my own beliefs and thoughts. — inquisitive
I don't believe complete moral relativism is a useful concept. Perhaps this is where our divide lies. I think there has to be a certain amount of moral realism in the world. — inquisitive
Would you not agree that there are things that are objectively bad? I don't like to use extremes, but consider rape or genital mutilation. — inquisitive
It seems to me that one can reasonably argue that any moral framework which justifies these acts is not a moral framework that should be applied. — inquisitive
I'm not an expert on the subject, but it seems that a sudden change of diet to exclude all animal products can be harmful to ones health because certain nutrients aren't present in a purely plant-based diet. — inquisitive
Maybe purely "ethical" pressure isn't enough though? It seems to me that government regulations are still too lax here. — inquisitive
Smil says the human population has grown 20-fold in the last 1000 years and nearly quadruppled in just the past century. The numbers are still swelling by 230,000 every day.
So by his calculations, between 1900 and 2000 – allowing for the fact that humans have got on average somewhat taller and rather fatter – the global anthropomass has grown from 13 to 55 million tonnes of carbon (Mt C) by weight, or from 74Mt to 300Mt if you include the water and the body’s other mineral elements.
That is a lot of flesh to feed obviously. But Smil says bottom-line is what scientists call HANPP, or the human appropriation of net primary production – the amount of the planet’s total harvestable plant growth that this many humans now take as their share.
And Smil says it is about a quarter. That is, 25 per cent of the annual terrestrial phytomass production, the conversion of sunlight to plant material, winds up one way or another supporting the 55Mt of human carbon.
Hey yes, we rule!
The calculation is complicated of course. It includes not just the plant growth directly for food but also our take in fuel, fibre and timber.
And nearly half the HANPP figure represents the global loss of photosynthetic potential due to erosion, desertification, human created forest fires and the building over of good land – all the ways we have taken away from the Earth’s usual productivity.
Smil notes the world’s big cities now cover nearly 5 million square kilometers. In the last 2000 years, he says, with deforesting and other deprecations, humans have cut the total phytomass stocks from 1000 billion tonnes (Gt) of carbon to 550Gt.
But there is good news in the HANPP. At least farming efficiency has been keeping it somewhat under control.
Smil says it is estimated that a third of the Earth's ice-free surface has been taken over by human agriculture, some 12 per cent for crops and 22 per cent for pasture.
However because of the green revolution of the mid-20th Century – the switch to industrialised farming with diesel machinery, petroleum-based fertiliser, irrigation schemes and new crop strains – the figures have not blown out quite like they could have.
Over the past century, the global HANPP has only doubled from the 13 per cent supporting 1.7b people in 1900 to the 25 per cent supporting 7.2b people now.
And looking ahead, even with the global population expected to hit 9b by 2050, the human share of the Earth’s photosynthetic bounty may only hit 30 per cent.
Well, that is unless biofuels are needed as an alternative energy source and the resulting agricultural expansion balloons HANPP out to 44 per cent, as some studies suggest.
...
From a New Zealand perspective, this is where Smil’s book gets especially thought provoking. Because as well as the anthropomass and the phytomass, there is also the story of the zoomass – the drastic shift from wild to domestic animals in terms of the planet’s mammal population.
Smil calculates that the agricultural revolution of the past century has seen a seven-fold increase in plant production. In 1900, humans grew 400Mt of dry matter a year. Now it is 2.7Gt. But because humans like meat on their plate, half this phytomass goes to feed our farm animals.
We know the equation of course. It takes about 10kg of grain to produce 1kg of burger meat. And Smil says the consumption of meat in developed countries has shot up from just a few kilos per person per year to over 100kg.
In 1900, the world had 1.6b large domestic animals including 450m head of cattle and water buffalo. Today, that number is 4.3b, with 1.7b cattle and buffalo, and nearly 1b pigs.
In terms of biomass, the increase is from 35Mt of carbon to 120Mt. So about double the 55Mt of humans treading the planet in fact.
Wild zoomass has naturally gone skidding in the other direction, halving from 10mt to 5Mt during the 20th Century. With large grazing animals, the drop has been especially severe says Smil. Elephants have gone from 3Mt to 0.3Mt, the American bison is right off the radar at 0.04Mt.
Tot it up and the numbers are a little bonkers. The combined weight of humanity is today ten times the weight of everything else running around wild – all the world’s different mammal species from wombats to wildebeest, marmosets to rhinos.
And then our livestock, the tame four legged meals soon to end up on our dinner table, outweigh that true wildlife by 24 to 1 all over again. Talk about transforming a planet within living memory. The world is now mostly constituted of people, cows, sheep, goats and pigs.
As Smil says, the balance has gone from 0.1 per cent 10,000 years ago, to about 10 per cent at the start of the industrial revolution, to 97 per cent today. There may still be tens of thousands of wild mammal species sharing our Earth, but really they don’t add up to much of any consequence.
Again, just think about it. We harvest a quarter of the biosphere now. Ourselves and our four legged meals outweigh other terrestrial mammals by a combined 34 to 1.
And no, I’m still not sure I can quite believe Smil’s numbers either. Sometimes in life you are left just shaking your head.
What sets us apart in a way that would grant us more rights over an animal? Do we not have the same right to the land and resources as them? Do they not have the same right to pursue their own interests as we do? Theirs may stem from a more instinctive place, but I don't see how the capability of rational thought grants us more rights. — inquisitive
Well, I suppose that depends entirely of one's definition of nature's true self and whether this is a successful version of it. One could argue that it is the least successful, for example if you propose that a successful expression would be organisms living in relative balance to one another as they do in many ecosystems. Humans have clearly upset any such balance. — inquisitive
Yes, it is only us that can act like that, but does that not put a great deal of responsibility on us that we are simply dismissing? — inquisitive
I think you are being too optimistic here. How many people really care about farming humanely? The president of the US is in the process of reducing the number and size of natural parks right now. Clearly there are a great number of people that still don't care. — inquisitive
Do infants? I am not sure I understand why the absence of responsibility precludes one from having significant rights. — inquisitive
The points on carbon footprint through food and the mistreatment of animals combine for a shattering conclusion: we are both abusing these animals and destroying their habitat – which they have exactly the same right to as we do – in the process. — inquisitive
Taking into account the points above one could argue then that this inevitable demise of our species may well be the only good thing to come out of this catastrophe (it is just a shame that most others will go down with us). — inquisitive
Maybe we should let nature remove the worst parasite she has ever known? — inquisitive
What we call the present--Isn't it really just the recent past and immediate future? No point trying to quantify its duration, as if it were a real distinct division into actual different periods.. — Michael Ossipoff
I didn't stress it, but I include the failure of the body in the problem of death. We don't usually just drop dead. Things fall apart first. The vitality we took for granted seeps away. — ff0
Some of life's beauty lies in the death of all things. — ff0
But we might also speak of attaining a kind of emotional equilibrium, of making peace with death or 'evil,' etc. Of living and dying well. — ff0
But perhaps you neglect the position of the mortal individual with a particular history. You mention the individual pole in passing, but don't have much to say about it, which is fine. But what of the individual who comes to term with his smallness on the world stage? With the impotence of his notion of the way the world ought to be? Born into a kind of chaos, he will die in it. Also it seems fair to expect the species itself to go extinct. — ff0
In short, we operate within a sort of finitude and absurdity, granting these assumptions. We are future-oriented beings with long-term projects and social hopes. Yet projecting far enough ahead reveals a kind of futility. This is a fascinating situation. — ff0
It also seems foundational to clarify the goal. — ff0
But even outright war can inspire innovation. So there's that. — ff0
What is ideological about causation? About the laws of thermodynamics? What is ideological about "Energy equals mass times the speed of light squared." or Darwin's finches? or the first through fifth extinctions, now heading into the sixth? or the San Andreas or Madrid fault? or is this squirrel a hybrid or a separate species? Or climate change? What are the genes that contribute to invincible stupidity? — Bitter Crank
Seems like total agreement has no need for creative compromise. — ff0
What may be usefully found in a philosophy text, though... — ff0
So, how are those countries pulling these enviable things off, of spending large sums of money on social welfare programs and at the same time maintaining their high HDI and low Gini coefficients? — Posty McPostface
My question, I suppose, was more to do with where we find ourselves when the philosophy runs out. — Oliver Purvis
It's weird, I experience a thudding sound, but I know it's not coming from my ears. — Marchesk
In other words, what is the smallest amount of present time that can exist in order to differentiate the past and future? — JohnLocke
Yeah, and if everything comes down to a matter of what provides the most amount of utility to me, we would all be heroin addicts, yeah? — Posty McPostface
So I can add to my apokrisis dictionary: what's a vague-crisp distinction when it's at home? And what's the epistemic cut? — fdrake
There has always been an apparent paradox between the concept of universal physical laws and semiotic controls. Physical laws describe the dynamics of inexorable events, or as Wigner
expresses it, physical explanations give us the impression that events ". . . could not be otherwise." By contrast, the concepts of information and control give us the impression that events could be otherwise, and the well-known Shannon measure of information is just the logarithm of the number of other ways.
One root of this paradox is the fact that the formulation of physical laws depends fundamentally on the concepts of energy, time, and rates of change, whereas information measures and the syntax of formal languages and semiotic controls are independent of energy, time, and rates of change. A second root of the paradox is that fundamental physical laws, as they are described mathematically, are deterministic and time-symmetric (reversible), whereas informational concepts like detection, observation, measurement, and control are described as statistical and irreversible.
Perhaps the deepest root of the problem, however, is the conceptual incompatibility of the concepts of determinism and choice, a paradox that has existed since the earliest philosophers. The modern attempts in physics to live with this paradox require introducing statistical concepts that allow alternatives into the framework of physical laws by reinterpreting the essential distinction between the laws themselves that describe all possible alternatives and the initial conditions that determine one particular case. Statistical physics accepts the inexorability of the laws, but assumes that virtual alternatives can exist in the microscopic initial conditions.
One measure of the alternatives is the entropy. Thus, we create imaginary statistical ensembles of systems which all follow the same dynamical laws, but that have different sets of initial conditions. These virtual microscopic states are restricted only by statistical postulates and their consistency with macroscopic state variables.
A modification of this classical view by Born points out that initial conditions of even one particle can never be measured with formal precision, and therefore even the classical laws of motion can predict only probability distributions for trajectories. Only when a new measurement is made can this distribution be altered.
The fact remains, however, that all our formal semiotic descriptions and computations, whether we interpret them as probabilistic, statistical, or fuzzy, are in practice assumed to be manipulated by crisp, strictly deterministic rules, even though physical laws require the execution of semiotic rules to be stochastic events.
The physics of symbols and the evolution of semiotic controls - 1996
A description requires a symbol system or a language. Functionally, description and construction correspond to the biologists’ distinction between the genotype and phenotype. My biosemiotic view is that self-replication is also the origin of semiosis.
I have made the case over many years (e.g., Pattee, 1969,1982, 2001, 2015) that self-replication provides the threshold level of complication where the clear existence of a self or a subject gives functional concepts such as symbol, interpreter, autonomous agent, memory, control, teleology, and intentionality empirically decidable meanings. The conceptual problem for physics is that none of these concepts enter into physical theories of inanimate nature
Self-replication requires an epistemic cut between self and non-self, and between subject and object.
Self-replication requires a distinction between the self that is replicated and the non-self that is not replicated. The self is an individual subject that lives in an environment that is often called objective, but which is more accurately viewed biosemiotically as the subject’s Umwelt or world image.
This epistemic cut is also required by the semiotic distinction between the interpreter and what is interpreted, like a sign or a symbol. In physics this is the distinction between the result of a measurement – a symbol – and what is being measured – a material object.
I call this the symbol-matter problem, but this is just a narrower case of the classic 2500-year-old epistemic problem of what our world image actually tells us about what we call the real world.
http://www.informationphilosopher.com/solutions/scientists/pattee/
The cosmological principle states that each constant-time hypersurface of the universe ('this spacetime') is homogeneous and isotropic at the large scale. — andrewk
.The Wiki article on the cosmo principle does note that the sun is different from the earth, so that the cosmo principle doesn't apply at such small scales. — fishfry
Is that a zizek sweater from 2006? — csalisbury
Ed Gein was (literally) a bricoleur — csalisbury
(Empiricism and Subjectivity); I think this is exactly the model that ought to be adopted. — StreetlightX
I wanted you to be technically precise with your use of terms - good that you did this. — fdrake
Which possibilities are closed? — fdrake
What degrees of freedom does this create? — fdrake
What degrees of freedom does this create? How does it create rather than destroy them? How do those degrees of freedom get turned into degrees of freedom for certain organisms? Which organisms? What properties do those recipient organisms have? How do the 'degrees of freedom' in the 'crumbs' relate to the 'smaller stable niches', in what manner do they 'rain'? In what manner are they 'spent'? How does one set of degrees of freedom in the canopy become externalised as a potential for the ecosystem by its deconstruction and then re-internalised in terms of a flow diversification? — fdrake
Elsasser argued that nature is replete with one-time events - events that happen once and never occur again. Accustomed as most investigators are to regarding chance as simplistic, Elsasser's claim sounds absurd. That chance is always simple, generic, and repeatable is, after all, the foundation of probability theory.
Elsasser, however, used combinatorics to demonstrate the overwhelming likelihood of singular events. He reckoned that the known universe consists of somewhere on the order of 10^85 simple particles. Furthermore, that universe is about 10^25 nanoseconds in age. So at the outside, a maximum of 10^110 simple events could possibly have transpired since the Big Bang.
Any random event with a probability of less than 1 in 10^110 of recurring simply won't happen. Its chances of happening again are not simply infinitesimally small; they are hyper-infinitesimally small. They are physically unreal.
That is all well and good, one might respond, but where is one going to find such complex chance? Those familiar with combinatorics are aware, however, that it doesn't take an enormous number of distinguishable components before the number of combinations among them grows hyper-astronomically.
As for Elsasser's threshold, it is reached somewhere in the neighborhood of seventy-five distinct components. Chance constellations of eighty or more distinct members will not recur in thousands of lifetimes of the universe.
Now it happens that ecologists routinely deal with ecosystems that contain well over eighty distinct populations, each of which may consist of hundreds or thousands of identifiable individual organisms. One might say, therefore, that ecology is awash in singular events, They occur everywhere, all the time, and at all scales.
None of which is to imply that each singular event is significant. Most simply do not affect dynamics in any measurable way; otherwise, conventional science would have been impossible. A few might impact the system negatively, forcing the system to respond in some homeostatic fashion.
A very rare few, however, might accord with the prevailing dynamics in just such a way as to prompt the system to behave very differently. These become incorporated into the material workings of the system as part of its history. The new behavior can be said to "emerge" in a radical but wholly natural way that defies explanation under conventional assumption.
I think you usually handwave this by calling it 'coupling', too (forgetting that coupled systems have shared parameter spaces). Lo and behold, when you put a bit of work in, you can see literal coupling when your figurative sense of coupling was implicated and it looks like there's some way to take the intersection of parameter spaces such that each individual system's has a non-empty intersection with enough of the rest to make a connected network of flows. — fdrake
The principle of indifference cannot be extended as equiprobability to countable or continuous state spaces - this is because a uniform distribution cannot exist on infinite sets of outcomes. — fdrake
Without lingering too long on that fact that that isn't actually correct, there's an observed upside down U shape in ascendency (increase then decrease) over an eutrophication gradient, though since the paper detailing that doesn't do an error analysis it's still up for debate - he has to at least engage with the relative strengths of the terms in the formula. He does. — fdrake
The yin and yang of ecology
By now the reader may have noticed that two countervailing tendencies are at play in the development of any dissipative structure. In one direction a continuous stream of perturbations works to erode any existing structure and coherence. Meanwhile, this drift is opposed by the workings of autocatalytic configurations, which drive growth and development and provide repair to the system.
This tension has been noted since Antiquity. Diogenes related that Heraclitus saw the world as a continuous tearing down and building up. With the Enlightenment, however, science opted for a more Platonic view of nature as monistic equilibrium.
Outside of science, Hegel retained Heraclitus’ view of the fundamental tension, but with significant amendment. He noted that, although the two tendencies may be antagonistic at the level of observation, they may become mutually obligatory at the next higher level. Hegel’s view is resonant with the picture of ecosystem dynamics portrayed here.
Indeed, the second law does dissipate what autocatalysis has built up, but it has been noted that singular chance is also necessary if systems are truly to evolve over time and develop novel emergent characteristics. Looking in the other direction, complex, evolved systems can be sustained only through copious dissipation.
The problem with this agonistic view of the natural world is that, unlike the mechanistic (Platonic) convention, dialectic like dynamics cannot be adequately represented as algorithms.
To repeat again, mechanistic simulation models are inadequate to the task of describing ecosystems over the longer run, because the selfsame selection exhibited by autocatalysis can unpredictably replace not only components, but their accompanying mechanisms as well. Not only does the notion of mechanism defy logic, it seems also to poorly match the dynamics that actually are at play.
The chief advantage of using information theory to describe organization is that it allows one also to quantify the opposite (or complement) to information in similar fashion. Whence everything
that is disordered, incoherent and dissipative in the same network can be captured by a related, non-negative variable called the system’s overhead...Furthermore, a system’s ascendency and overhead sum to yield its overall capacity for development.
The actual pattern of order is the result of two opposing tendencies: In an inchoate system (one with low a), there are manifold opportunities for autocatalytic cycles to form, and those that arise create internal constraints that increase A (and thereby abet a). This tendency for a to grow via autocatalysis exists at all values of a. The role of overhead however, changes as the system progresses toward higher
a.
In inchoate systems (low a), it is ˚ that provides the opportunities for new cycles to form. In doing so it abets the tendency to increase autocatalysis. However, in systems that are already highly developed
(a ≈ 1), the dominant effect of ˚ becomes the disruption of established feedback loops, resulting in a sudden loss of organized performance. (The system resets to much a lower a.)
So at high a, ˚ strongly opposes further increase in a. Presumably, a critical balance between the countervailing roles of ˚ exists near the value of a at which the qualitative role of ˚ reverses.
Originally, it was thought that ecosystems increase uniformly in ascendency as they developed, but subsequent empirical observation has suggested that all sustainable ecosystems are confined to a narrow "window of vitality" (Ulanowicz 2002).
Systems with relative values of ascendency plotting below the window tend to fall apart due to lack of significant internal constraints, whereas systems above the window tend to be so "brittle" that they become vulnerable to external perturbations.
It would be interesting if Shannon biodiversity was related to ascendency — fdrake
I love this so much though. — StreetlightX
