Is Math an Inherent Part of Nature or a Human Invention?

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The discussion centers around whether mathematics is inherent in nature or a human invention used to describe the world. A senior mechanical engineering student, Kevin, seeks clarity on this philosophical question, expressing frustration with the complexity of existing discussions. Participants engage with the idea that while mathematics is a language created by humans, it may reflect underlying patterns in nature. The conversation explores concepts like mathematical realism and the relationship between abstract mathematical constructs and physical reality. Some argue that mathematics is a tool for understanding nature, while others suggest that it merely describes relationships we observe. The debate includes references to philosophical perspectives, such as those of Wigner and Plato, and highlights the ongoing challenge of reconciling mathematical abstraction with empirical reality. Ultimately, the consensus leans towards the idea that mathematics serves as a framework for interpreting the natural world, rather than being an intrinsic part of it.
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Hey guys, quick question, I was wondering about this and thought maybe you guys would know.

Do you think math is built into nature, or is it something we made up to describe the world around us? I'm a senior ME major and I've seen math all the way up through PDE's and such, but I still can't figure out whether it's physically real or just falls out from unit analysis.

Thanks,

Kevin
 
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Please read this:

http://www.dartmouth.edu/~matc/MathDrama/reading/Wigner.html

Your thread is being considered to be moved to the Philosophy forum. Please note that threads in the physics forums must contain topics with actual physics content.

Zz.
 
Oh, sorry, my bad. Thanks for your help.
 
Clearly. To be honest i was kind of hoping for a yes or no answer from someone who has already thought this through, because the internet is loaded with philosophical discussions on this but they tend to be very long and drawn out and not make any sense to me.
 
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spartandfm18 said:
Clearly. To be honest i was kind of hoping for a yes or no answer from someone who has already thought this through, because the internet is loaded with philosophical discussions on this but they tend to be very long and drawn out and not make any sense to me.

But I thought Wigner's article has clearly addressed the issue that you've brought up!

Or maybe you don't buy his argument?

Zz.
 
spartandfm18 said:
Clearly. To be honest i was kind of hoping for a yes or no answer from someone who has already thought this through, because the internet is loaded with philosophical discussions on this but they tend to be very long and drawn out and not make any sense to me.

Well, as Wigner implies, if the discussions were not like that they wouldn't be "philosphy", they would be something else.

I forget which 20th century philosopher said "the whole of western philosophy is just a series of footnotes to the works of Aristotle", but ignore the cynicism in the comment and there is a lot of truth in it. Trying to answer unanswerable questions tends to take an infinite amount of time.
 
No, the Wigner article was pretty much exactly what I was looking for. I was referring to all the stuff I had previously read about it.
 
Note: Moved to Phil, since Zz was kind enough to reply and provide some discussion topic reference.
-MIH
 
  • #10
spartandfm18 said:
Clearly. To be honest i was kind of hoping for a yes or no answer from someone who has already thought this through, because the internet is loaded with philosophical discussions on this but they tend to be very long and drawn out and not make any sense to me.
No, math is not "built into nature." It is "something we made up to describe the world around us..."
 
  • #11
Jocko Homo said:
No, math is not "built into nature." It is "something we made up to describe the world around us..."

We made up the language, but did we make up the patterns and relationships the language describes?
 
  • #12
apeiron said:
We made up the language, but did we make up the patterns and relationships the language describes?
Well, surely we didn't "make up the patterns and relationships" our mathematical language describes but is that what spartandfm18 was asking?
spartandfm18 said:
Do you think math is built into nature, or is it something we made up to describe the world around us? I'm a senior ME major and I've seen math all the way up through PDE's and such, but I still can't figure out whether it's physically real or just falls out from unit analysis.
The emphasis is mine...

It depends on what is meant by "nature."

It might be tempting to say that anything we can describe is "in nature" since you'd like to call the reality we all exist in "nature" and our descriptions exist in it but I don't think this is a useful definition. Fictional stories don't exist in nature... well, the stories do but what's described in the stories don't...

For example, I can describe 17 dimensional Euclidean space mathematically but I don't believe such a thing exists "in nature." If you do then we likely have a mere disagreement in semantics...
 
  • #13
Jocko Homo said:
For example, I can describe 17 dimensional Euclidean space mathematically but I don't believe such a thing exists "in nature." If you do then we likely have a mere disagreement in semantics...

Good point. This draws a distinction between the possible and the actual. Maths starts off by describing actual patterns and then becomes generalised enough so it can describe patterns that are merely possible, or that may exist, we just don't know.

So yes, the relationship is a tricky one. That is why it is the subject of constant debate. Don't expect a simple answer.

However, for the sake of the OP, it is worth starting out as gently as possible. To say math is just constructed and is "not in nature" is too extreme. Just as it is to go the other way and say reality is mathematical (in the way Pythagoras and Plato were said to claim).

So instead we can point out that reality is patterned. It has self-consistent form. And the variety of these forms is in fact also self-limiting. There might be reasons why 17 dimensions is indeed impossible, yet some other number of dimensions has the right global symmetry.

So string theory, for example, could be both a mathematical statement and a pattern of nature. Whereas a 17 dimensional Euclidean space would just be a mathematical statement, with no convincing reason to exist. I mean you cited it because it did seem so obviously arbitrary I presume.
 
  • #14
In my view nature and math can be viewed as two intersecting circles A and B
where A \cap B relates to the part of nature which has mathematical description as we know today. Still many things in nature remain to be mathematically described, which is A - B. Same way we have math for some things which doesn't exist in nature B - A .
 
  • #15
There should probably be more "I think" and "I feel" statements in here. Its not like we can prove any of these assertions. I think we 'discover' mathematical truths just as we discover physical ones. Its all there and we're groping through the dark to find it. But that's just the way I view things. But we should also be careful of the applicability of math question. I think its largely an illusion. There are plenty of failed attempts to do one thing or another with math, but those end up in wastebaskets or erased from chalkboards. Journals, textbooks and the like are largely filled with those attempts that worked and so our sample is somewhat skewed.
 
  • #16
There are a lot of mathematical concepts that appear in real life. The very famous fibonacci numbers, golden ratio to name a few.
 
  • #17
homology said:
There should probably be more "I think" and "I feel" statements in here. Its not like we can prove any of these assertions. I think we 'discover' mathematical truths just as we discover physical ones. Its all there and we're groping through the dark to find it. But that's just the way I view things. But we should also be careful of the applicability of math question. I think its largely an illusion. There are plenty of failed attempts to do one thing or another with math, but those end up in wastebaskets or erased from chalkboards. Journals, textbooks and the like are largely filled with those attempts that worked and so our sample is somewhat skewed.
Perhaps you missed this part:
spartandfm18 said:
Clearly. To be honest i was kind of hoping for a yes or no answer from someone who has already thought this through, because the internet is loaded with philosophical discussions on this but they tend to be very long and drawn out and not make any sense to me.
 
  • #18
Just to play devil's advocate: there are lots of rational numbers that appear in life that seem close to some notable irrationals.
 
  • #19
One thing that I want to point is that the tools of math are applied many many times without people even noticing that what they are doing is what scientists, engineers, and applied as well as pure mathematicians do (or at least attempt to) do on a daily basis.

Here is an example of what I mean.

Lets say a young person gets a job. They have a mentor to help them learn whatever the business wants them to learn. The mentor (or trainer) has many many years of experience. Now the trainer has had many many years of experience and has had the ability to get a lot of experience, and time for reflection, analysis and as a result gain further insight into what his field is "in a nutshell".

So the trainer conveys what the field is all about to the trainee. He hasn't provided any specifics or worked examples, but he has condensed his knowledge down into things that when expanded and when properly understood, yield the generality of his field.

That is an example of a non-mathematician creating "axiom-like" details, just like the scientific community tries (or does) do as part of their job.

People will always use this reductionist technique in any area, because it is a generalization of the abstraction mechanism that allows to further abstract knowledge and ideas to a point where further abstraction explains a greater variety of conceptual understandings, ideas, working knowledge and so on.

Without this kind of "axiomitization", I don't think people would benefit from other peoples experience and without the ability I dare say people would have to "reinvent the wheel" every time.
 
  • #20
Jocko Homo said:
Perhaps you missed this part:

Thanks, though I didn't. Just because he wants a yes/no answer doesn't mean there is one.
 
  • #21
spartandfm18 said:
Hey guys, quick question, I was wondering about this and thought maybe you guys would know.

Do you think math is built into nature, or is it something we made up to describe the world around us? I'm a senior ME major and I've seen math all the way up through PDE's and such, but I still can't figure out whether it's physically real or just falls out from unit analysis.

Thanks,

Kevin


https://www.physicsforums.com/showthread.php?t=330679&page=19
 
  • #22
If we make the assumption that, to quote Tristan Needham, "that our mathematical theories are attempting to capture aspects of a robust Platonic world that is not of our making", what then? if mankind did cook these things we call integers, where everything happens all at once, then who is teaching the other animals how to count?
Maybe Leoplod Kronecker got it backwards, maybe man invented God, and all the rest is the work of integers. Maybe not. We don't know. Maybe the universe is an emergent property of the the integers and maybe the integers are an emergent property of the real numbers. who knows? Not me, not anyone.
 
  • #23
that depends on what your definion of "is" is.
 
  • #24
Even when describing common physical entities, math may use abstract concepts to conveniently express ideas for some descriptive purpose. For example a six dimensional vector space is used for the momentum space (phase space) of a particle. The velocity component has two dimensions (speed and direction) for each of the three basis vectors of ordinary three dimensional physical space.
 
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  • #25
I don't believe so.

I think the universe behaves in a consistent, predictable way which is government by simple interactions at the smallest level.

The ultimate law of physics, in my opinion, should not even need to be a mathematical one, but one which simply explains how the machinery of nature moves.

I think any system which is consistent, predictable and based on simple interactions can be described mathematically - because math follows the same structure.
 
  • #26
Math is just a code we use to describe nature.
 
  • #27
homology said:
Just because he wants a yes/no answer doesn't mean there is one.

Especially since he didn't technically ask a yes or no question, eh?

"Do you think math is built into nature"

I'm not too sure what this part of your thought would actually mean. In many ways it seems that math is a language... and the Greeks didn't call nipples, nipples but we all know nipples are part of nature. So, semantically no form of communication is as organic as to say it was "built into nature" because it is all learned. Direct eye contact even means severely different things to different communicators...

Personally, I always liked the criminal forensic analogy. "Blood spatter" is an entirely relevant element of crime solving, and yet for thousands of years it sat entirely arbitrary within the matter of solving crimes. The same thing with finger prints... They've always been there and are simple enough to see just like mathematic interactions, but the actual analysis of them require representations, which almost by definitions cannot physically exist the same way as their host. Math is a language mankind has derived for itself in order to analyze and predict the condition of nature and like any language, the representations are learned but that doesn't make, for example, the Earth's escape velocity, which is represented with a host of equations and symbols but when it comes down to it, you break 25.2k mph and you orbit Earth.

As far as the more complex stuff that seems not to be attached to elements of reality, well just like blood spatter... until people gain the ability to see aspects of nature in a way that communicates to them things seem a lot more arbitrary than they really are.

_________________________________________________
Where's the math that says ∞! is bigger than God's nose hair?
 
  • #28
Which Math??

The axioms of ZFC have widespread but not universal acceptance. There are many mathematicians who do not accept C (the axiom of choice) others would add a variety of large cardinal axioms. There is an small active group of mathematicians investigating and debating the foundations of mathematics. If Math is physical, how do we choose the right one?

Skippy

PS Accepting ZFC leads to some very non-physical paradoxes like the Banach-Tarski paradox and the nonexistence of measure which is invariant under all rigid motions.
 
  • #29
There's an interesting thought that one might get Penrose's Road to Reality (the picture connecting maths-physics-mind). Can we say maths is physically real because it is in people's brains, and people's brains are physically real?
 
  • #30
atyy said:
There's an interesting thought that one might get Penrose's Road to Reality (the picture connecting maths-physics-mind). Can we say maths is physically real because it is in people's brains, and people's brains are physically real?

If you followed the logic of this dualistic position, wouldn't you be forced to say that the maths is still only in the mind-stuff, and not the brain-stuff? If the maths is in anything physically real? Mind and brain may seem co-located, but dualism says they are not "the same place".

But if you like this way of looking at things, you may like the Popper/Eccles three worlds approach to interactive dualism.
http://en.wikipedia.org/wiki/Popperian_cosmology

I prefer the view that brains are modelling the world. What this modelling feels like is consciousness. Brains model both specific and general ideas. Specific ones are those like the perceptual state of the world right now. General ones are like the concepts of maths and science (Popper's world three).
 
  • #31
apeiron said:
If you followed the logic of this dualistic position, wouldn't you be forced to say that the maths is still only in the mind-stuff, and not the brain-stuff? If the maths is in anything physically real? Mind and brain may seem co-located, but dualism says they are not "the same place".

But if you like this way of looking at things, you may like the Popper/Eccles three worlds approach to interactive dualism.
http://en.wikipedia.org/wiki/Popperian_cosmology

I prefer the view that brains are modelling the world. What this modelling feels like is consciousness. Brains model both specific and general ideas. Specific ones are those like the perceptual state of the world right now. General ones are like the concepts of maths and science (Popper's world three).

I wasn't aware what I wrote was dualistic. I would say mind is a state of brain (and body). I'd be in general agreement with your last paragraph. Is what I wrote actually not?
 
  • #32
To ask whether mathematics is physically real is exactly like asking if any other field of study is physically real. Mathematics is, as philosophy, physics, linguistics, psychology etc.. not more physically real than any other activity.

The question as it should have been asked is whether the objects we speak of in mathematics are physically real. The view that they in some sense are amounts to mathematical realism or even mathematical platonism, two views which unfortunately are common among mathematicians.
 
  • #33
atyy said:
I wasn't aware what I wrote was dualistic. I would say mind is a state of brain (and body). I'd be in general agreement with your last paragraph. Is what I wrote actually not?

Sorry, when you mentioned Penrose, I assumed you meant his pet theories (he is both a dualist and a Platonist).

So if you step back to just the statement "maths is physically real because it is in people's brains", then I don't see this does add much.

The question still remains how you regard the physical reality of form (in a world which the reductionism would say monistically "is just composed of substance").

Perhaps a better question here is "are the laws of physics physically real?" Do they exist in the actual world (and where) or are they just socially-constructed ideas (and hence exist in books and other "physical" places as well as brains)?
 
  • #34
apeiron said:
Sorry, when you mentioned Penrose, I assumed you meant his pet theories (he is both a dualist and a Platonist).

So if you step back to just the statement "maths is physically real because it is in people's brains", then I don't see this does add much.

The question still remains how you regard the physical reality of form (in a world which the reductionism would say monistically "is just composed of substance").

Perhaps a better question here is "are the laws of physics physically real?" Do they exist in the actual world (and where) or are they just socially-constructed ideas (and hence exist in books and other "physical" places as well as brains)?

Well, I guess physics is dualistic in some sense. We have the laws and reality, and the laws are abstraction by the observer (who is an emergent physical object). In some cases, we know of laws that have more than one physical instantiation. Eg. certain properties of materials near the critical point are universal, dependent only on dimensionality and symmetry. So if those properties are the "character" or "soul", then they don't need a unique body for their existence, and can be "resurrected". (Incidentally, but completely tangentially, I did once come across a mathematical definition of soul http://en.wikipedia.org/wiki/Soul_theorem :smile:)
 
  • #35
does math = reality?
 
  • #36
Darken-Sol said:
does math = reality?

That's like asking if thought (conceptualizations) equals reality. Some concepts are testable models. Others are not. If models are testable, they can be falsified. This falsification can be formal (logical) or empirical (experimental/observational).

These threads tend to be exercises in mystification.
 
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  • #37
SW VandeCarr said:
These threads tend to be exercises in mystification.


I'd say they tend to be more of an exercise in institutionalized avoidance and denial.
 
  • #38
apeiron said:
We made up the language, but did we make up the patterns and relationships the language describes?

apeiron I'm with You. It really seems that mathematics is the closest language we (humans) have developed with nature but how close is it to "really" "understand".

Close enough?
 
  • #39
spartandfm18 said:
Hey guys, quick question, I was wondering about this and thought maybe you guys would know.

Do you think math is built into nature, or is it something we made up to describe the world around us? I'm a senior ME major and I've seen math all the way up through PDE's and such, but I still can't figure out whether it's physically real or just falls out from unit analysis.

Thanks,

Kevin



'Real' by definition is always only that which is experienced in some way. In that sense, everything we propose about bringing reality into a framework is just models, not reality which is experienced and which is not the models(it's highly unlikely that it'd be ever possible to describe reality reliably within the framework of any model - this doesn't necessarily follow from Goedel's work).
 
  • #40
spartandfm18 said:
Hey guys, quick question, I was wondering about this and thought maybe you guys would know.

Do you think math is built into nature, or is it something we made up to describe the world around us? I'm a senior ME major and I've seen math all the way up through PDE's and such, but I still can't figure out whether it's physically real or just falls out from unit analysis.

Thanks,

Kevin

We live in a real world so its no wonder that the logic we deduce from analysis would be in nature. The fact that analysis "found" truth does not change the truth value of reality. Put another way, we are a product of nature, so its no wonder that our "natural" minds would deduce truths which are reflected in nature. So yes, mathematics is real and natural, but we didn't "invent" it, we merely reflect on it. Similarly, there is a perfection which exists which governs nature, mathematics is only a surface attempt at describing this perfection of the universe.
 
  • #41
math is as perfectly cultural and historical as any human achievement. and it is as real as anything else. the paper you calculate on, the textbooks, the operations of thought it conditions. all of those things enact and intervene in the real at any point they are made relevant to someone or something. I would argue that it is only once you buy into the platonic myth of reality being something at distance from you, description, perception and so on, that the question can even be posed in OPs terms.

in my view "math" does not exist in some ideal space that maps over "nature" in some ideal space. simply because no pure, ahistorical, alocal realms like these exist. doing math is one mode of locally enacting the real and sure enough the practice of math has it's own load of conditions and possibilities. you try to describe some phenomenon, you try to mathematize it - those are all operations that happen in and to the world. once you're done you, your instruments, your thought, your body, and the conditions of possibility have moved on. realities have changed.

a real problem might show up if if we can agree that physical reality is in some way a bubbling process. there is novelty in the universe, we don't need to go further into any physical account. so we have novelty which originates realities, no matter if one thinks this at micro- or macrophysical levels. the question that may be asked then is this: what is the reality that determines the background conditions for the emergence of novelty. what is the unoriginated portion of nature classically construed? and once we can think that unoriginated portion as the reality that all of process, novelty, physics are grounded on we can ask the question: how? how is the continuous emergence of process determined?

that's when you might, like Whitehead, feel the need for a technical term "god" in your philosophy of physics. whatever keeps the processes in the universe in-check so to speak, have them run according so as to guarantee continuous process of some kind. to come back to the question of math then one could speculate: whatever unoriginated reality the excessive activity of the universe we can observe is originated from - that reality might determine certain conditions of continuous process. perhaps ruling in analogy to mathematical rules and operations? god (not the god of religion) might at some point have been a mathematician of sorts.
 
  • #42
Darken-Sol said:
does math = reality?

No, math = human translation of nature's language.
 
  • #43
rustynail said:
No, math = human translation of nature's language.

who is this nature? and does it speak by itself? math is a tool for transforming realities. those realities don't preexist their making, as if the mathematician would shuttle back and forth between nature and humans to bring the holy word. it is much more mundane than that. it is a technology of thought that enables transformative work in and of nature, very useful indeed!

a great book on the invention of modern math is Reviel Netz' historical study of the emergence of formalist styles of reasoning in ancient greece. this review does a good job at extracting the significance of that invention from a rather complex book:

http://www.bruno-latour.fr/articles/article/104-NETZ-SSofS.pdf
 
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  • #44
cosmographer said:
who is this nature? and does it speak by itself? math is a tool for transforming realities. those realities don't preexist their making, as if the mathematician would shuttle back and forth between nature and humans to bring the holy word. it is much more mundane than that. it is a technology of thought that enables transformative work in and of nature, very useful indeed!

a great book on the invention of modern math is Reviel Netz' historical study of the emergence of formalist styles of reasoning in ancient greece. this review does a good job at extracting the significance of that invention from a rather complex book:

http://www.bruno-latour.fr/articles/article/104-NETZ-SSofS.pdf

Thanks, a very entertaining reference. To me it confirms that there is this key turn of the mind where we go from imagining reality as a process (developing towards ultimate limits) and as existent (the limits are now what have been achieved and so are "the real").

So when the Greek geometers drew diagrams in the sand with a stick, they made this leap from a reality seeking its perfection to a belief in the existence of the perfect forms themselves. The Greeks of course were not so willing to make the same leap when it came to ratios, incommensurability and infinity. Infinity was still a limit on the process of counting. But mathematics later fixed that with Cantor, etc.

And now we find ourselves torn between the two views. The developmental or process view is clearly "the real" as it is rooted in the "imperfect materiality" which is our world. There are only ever triangles as scrawled in the dust. But the ideal forms - the emergent limit states - also have a claim to reality because they "can't be imagined not to exist". What is more definite and concrete than an ultimate limit (a boundary concept like a triangle)?

This ontological confusion is then compounded by the usual epistemological one - mistaking the map for the terrain. The desire is to deal with the substance~form dichotomy (materiality and its boundary states) by assigning reality and unreality to an epistemological division. So the world (being out there) is real, the maths (being in our heads) is unreal. Yet clearly this does not work because the maths is still really out there in some sense - as the boundaries, the limits, the constraints. The maths is more than just a potential fiction, a social construction due to restricted cognitive technologies.

The way I sort out this nest of confusion is first to accept the epistemological division (I think the "modelling relations" crowd in theoretical biology - Rosen, Pattee, Salthe - do the best job here). So nature, reality, is a constructed view. Both our notions about its materials and its laws, its substance and its form, are "in our heads" and justified by a modelling relation (so it is a process with its own purpose, its own needs, not some dispassionate god's eye view).

So reality, as far as we can know it, is our invention. That applies to our mathematical ideas about it, but also our "physical impressions" too. It is all a map.

However on the whole, it is a very good map - as it has developed within the self-refining tradition of metaphysical abduction, scientific induction and logico-mathematical deduction (Peirce's pragmatic triad!).

And then the ontological bit of the story. We can see that limits only actually exist in the sense that they are the boundaries to what exists. They are how far a process of development can go in some direction before asymptotically tending to a limit. So in fact they are the ontically unreal. The boundary remains always infinitesimally just beyond where reality can reach (so as to be able to be seen to enclose it fully).

Yet boundaries also have a real causality. At least if you are a process thinker, a systems science, you believe that there is such a thing as downward causation and even final cause. So forms can act as constraints that actually shape materiality. Maths exists "out there" as something real in the sense that there are forms (of the kind maths can describe) which have a causal role in the realm of the real.

I guess we have to ask the question then whether the set of forms that humans can imagine is a superset or a subset of those that reality can express. Sometimes it seems our inventions are more fertile - we can elaborate to create more imagined things than can actually exist. Other times, that maths is in fact quite impoverished. It is a pretty crude map of the terrain. More subtle things are going on than we have captured so far.
 
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  • #45
apeiron said:
The way I sort out this nest of confusion is first to accept the epistemological division (I think the "modelling relations" crowd in theoretical biology - Rosen, Pattee, Salthe - do the best job here). So nature, reality, is a constructed view. Both our notions about its materials and its laws, its substance and its form, are "in our heads" and justified by a modelling relation (so it is a process with its own purpose, its own needs, not some dispassionate god's eye view).

So reality, as far as we can know it, is our invention. That applies to our mathematical ideas about it, but also our "physical impressions" too. It is all a map.

However on the whole, it is a very good map - as it has developed within the self-refining tradition of metaphysical abduction, scientific induction and logico-mathematical deduction (Peirce's pragmatic triad!).

And then the ontological bit of the story. We can see that limits only actually exist in the sense that they are the boundaries to what exists. They are how far a process of development can go in some direction before asymptotically tending to a limit. So in fact they are the ontically unreal. The boundary remains always infinitesimally just beyond where reality can reach (so as to be able to be seen to enclose it fully).

Yet boundaries also have a real causality. At least if you are a process thinker, a systems science, you believe that there is such a thing as downward causation and even final cause. So forms can act as constraints that actually shape materiality. Maths exists "out there" as something real in the sense that there are forms (of the kind maths can describe) which have a causal role in the realm of the real.

Thanks for your thoughts. Mistaking the map for the territory surely is one mistake we can no longer afford to make. This is not to say that the map does not relate to territories, after all relevant relations had to be laboriously extracted from the very territory itself so to speak (which in math is a territory of the knowledge worker inheriting a mathematical tradition, the experimental setup is a human mind that has been equipped to do mathematical things together with theories, tools, colleagues and so on). A move that you seem to make here that I would like to be a bit cautious of is assuming "nature" as a constructed "view", something that is "our map" which "on the whole is rather good". By that move you seem to already take the map and it's general adequacy for given. And later you seem to jump from the idea of the map to the ontic qualities of a general territory. I'd argue here that when you look at the mechanisms by which maps actually are made and put in circulation, you end up with a different imaginary. The objects that transport the forms (the maps) are very concrete artifacts that have to travel into situations to make a difference. They are crucial to "forms" and "limits" gaining any kind of reality.

So the "ontology" drawn up in a technical math paper might not travel well to the practice of unclogging your toilet. It might not be a map adequate to the territory at all. In an extremely reductionist way one might perhaps want to insist that, yes, some miniscule aspect of the ontology drawn up in the paper captures well an aspect of what ontically happens when you are confronted with a clogged toilet. But at what price? Before you have tried to find a "form" or a "limit" the action has moved on and you might decide that you should rather call a plumber.

My main point here would be that pre-formatted reality is excessive and eventing. The reality of the forms in the math paper might be something that can occupy your metaphysical imagination, but that kind of mapping is also local to the very event of your imagining it. I would like us to keep adding ourselves and our specific situations and conditions (ontic, ontological and epistemological) back into the imagination of what kind of reality math can do. That move makes math totally historical and contextual. But luckily we have made it possible for "forms" and "limits" to travel - papers, words, computers, the postal system and so on.

So the more interesting case for me would be that of a mathematician, who, having a body and mind encultured to do mathematical things, would use the mathematical paper to do stuff in the world. Argue for funding money, argue with it against colleagues who hold other views, use a copy of it to make a provisional support for a table leg that had was too short, or use it as a model to calculate an aspect of climate change that eventually makes more effective action possible on an international scale! Or a nonmathematician who uses a copy of the same paper for totally divergent local activities, perhaps her gets a papercut or constructs a political theory from the formula. That's the kind of reality I would prefer to give to mathematics. Not to look for forms "out there" but to compel ourselves to look for the efficacy of math as "internal" to any specific practice .

So, sure the map might not be the territory, and sure it shares relevant features with the territory, but it also does work to transform the territory it is made relevant to.
 
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  • #46
To put it shorter: I don't only want "nature" as a thought-map of object-modelling relations, but as "doer" of local realities that are transformed by a being equipped with certain object-modelling technologies. Locally the model counts as much as the body as much as the situation in determining the next transformation.
 
  • #47
cosmographer said:
By that move you seem to already take the map and it's general adequacy for given.

Not really as I have already stressed "fit for purpose". So there is a criteria for making a judgement. In general, the map of western science is intended to give control over nature, and it is pretty easy to see the technological advance that results.

The objects that transport the forms (the maps) are very concrete artifacts that have to travel into situations to make a difference. They are crucial to "forms" and "limits" gaining any kind of reality.

The physical expression of the maps is of some interest to a philosophy of science student, but not crucial to the intellectual enterprise of map-making. Not in my opinion.

So the "ontology" drawn up in a technical math paper might not travel well to the practice of unclogging your toilet. It might not be a map adequate to the territory at all. In an extremely reductionist way one might perhaps want to insist that, yes, some miniscule aspect of the ontology drawn up in the paper captures well an aspect of what ontically happens when you are confronted with a clogged toilet. But at what price? Before you have tried to find a "form" or a "limit" the action has moved on and you might decide that you should rather call a plumber.

This seems rather spurious. Math would seem directly applicable to the form of the plumbing and the limits of its performance. But it would be the engineer who designs pipes and needs to model flows who would have need of the kind of technical map you are suggesting.

If a design of toilet was always clogging, would you call a plumber or an engineer?

My main point here would be that pre-formatted reality is excessive and eventing. The reality of the forms in the math paper might be something that can occupy your metaphysical imagination, but that kind of mapping is also local to the very event of your imagining it. I would like us to keep adding ourselves and our specific situations and conditions (ontic, ontological and epistemological) back into the imagination of what kind of reality math can do. That move makes math totally historical and contextual. But luckily we have made it possible for "forms" and "limits" to travel - papers, words, computers, the postal system and so on.

I think you are missing something vital if you focus only on the syntactical representation and leave out the semantics. So the modelling relations approach makes the point that models are in active interaction with the world. They don't really exist in the sense we are talking about when they are not doing anything (as in a book never read).

And while an individual making meaning of some mathematical idea at some moment is local and particular, there is still also the general activity of mathematically representing the world that lives in a multitude of minds over many centuries. That is just as real a level of action (just look at how the planet has been transformed in a couple of thousand years).

So the more interesting case for me would be that of a mathematician, who, having a body and mind encultured to do mathematical things, would use the mathematical paper to do stuff in the world. Argue for funding money, argue with it against colleagues who hold other views, use a copy of it to make a provisional support for a table leg that had was too short, or use it as a model to calculate an aspect of climate change that eventually makes more effective action possible on an international scale! Or a nonmathematician who uses a copy of the same paper for totally divergent local activities, perhaps her gets a papercut or constructs a political theory from the formula. That's the kind of reality I would prefer to give to mathematics. Not to look for forms "out there" but to compel ourselves to look for the efficacy of math as "internal" to any specific practice .

This is too reductionist for me. I am making an argument at the general level. The whole point is to generalise away the kind of localised quirks which you want to bring into play here.

So yes, again it is of interest to the anthropologist to record the variety in specific practices. But this ends up butterfly collecting unless you then extract general theories about "the practice".

So, sure the map might not be the territory, and sure it shares relevant features with the territory, but it also does work to transform the territory it is made relevant to.

I think it is more accurate to say the purpose of the map is to control the territory. I don't think it has the aim of transformation. And transformation is actually impossible in any fundamental sense. We can't change the laws of physics.
 
  • #48
cosmographer said:
To put it shorter: I don't only want "nature" as a thought-map of object-modelling relations, but as "doer" of local realities that are transformed by a being equipped with certain object-modelling technologies. Locally the model counts as much as the body as much as the situation in determining the next transformation.

Again, I too stress the active and purposeful nature of modelling. But I think you keep jumping to an unwanted stress on the particular. Metaphysics is about systematic generalisation - the shedding of the details that obscure. It is a discourse that privileges the universal. (Or am I just old-fashioned :wink:)
 
  • #49
Thanks for your concise replies. I see that quite a bit about my position needs to be fleshed out better. I'll have to come back to that in a moment when I have more time. Btw is it possible to pack quote and reply into one quote? So that I could reply to the full pair of my previous post plus your reply? I don't think I'm finding the right buttons here :smile:
 
  • #50
I think math does not exist in nature. But it is the only way our brains know how to understand it. 1 + 1 = 2 true. But where in nature does 1 appear. You can say one apple, but that is millions of cells, billions of atoms. etc. There are no perfect cirlces or shapes in nature. We have simplified our environment to make it eaiser to understand.
 

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