A new point of view on Math language

In summary, the conversation discusses the concept of complementary theory and its relation to mathematics. The main idea is that humans tend to see the world in relation to other things and this can lead to a discreet world view. The speaker also discusses the importance of defining relationships between opposite concepts and how it can lead to a more powerful understanding. The conversation also touches on the significance of structure over quantity in understanding concepts. Additionally, there is a mention of a pdf file with more information about the theory.
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  • #2
FYI the links at the bottom are invisible on my browser. (Opera 6.05)
 
  • #3
I'm no mathematician, but it seems like the fundamental idea here is that we humans tend to see the world in relation to other things, that is we define the degree of something based on what we know of something else when there is no absolute wrong or right and I'm guessing that this tendency for a discreet world view is a part of math?
 
  • #4
Hi Jammieg,

In Math there is no right or wrong.

All we can know is if some system is consistent or inconsistent.

An inconsistent system is not "wrong" but not interesting,
because through inconsistent system you can prove anything
without any limitations.

My fundamental idea is that if we use some concept in our system,
first of all we have to find and define its relations with its
opposite concept, otherwise our system is closed on itself under
one concept, and we lost our ability to explore this fundamental
concept.

In this case we can build an inconsistent system without even
knowing this.

I think that our abilities to find and define opposite concepts,
and the verity of the relations (if exist) between them, Is one of the most powerful tools that was developed through the evolution process.

Another thing is that no one (including mathematicians) wants
to change its familiar concepts or terms, but I think that if we
(again) learn from the evolution process, we find that in addition
to the variety concept (different axiomatic systems)
we have the mutation concept (changing familiar concepts or tems).



In my work I show two levels of complementary concepts by using
the set idea:

Power 0 = The simplest level of some set's content

Emptiness = Esim (sim for simplicity) = {} = 0 (without power symbol)

Continuum = Csim = {__} = 0^0

Discreteness = Dsim = {...} = Infinity many elements^0



Complementary Level A:

Content does not exit = {} = 0 <--> Content exists = ({__}~={...}) = 1
and level A is phase transition between 0(=on content) to 1(=content).


Complementary Level B:

{__} <--> {...}



By defining the relations between the above concepts, we find that the structure concept has more interesting information than the quantity concept because:

0^0 = infi^0 = 1 = content exists

and we can't distinguish between the contents by the quantity concept.


But it can be done by the structure concept because:

{__}~={...}

and we can learn that the structure concept has more information than the quantity concept.
 
Last edited by a moderator:
  • #5
Dear Hurkyl,

Please use Windows Explorer-like browser.

My pdf file is bigger than the limitations of this forum, sorry.

(if it doesn't help please look at the private message that I
sent to you)
 
Last edited by a moderator:

1. What is "A new point of view on Math language"?

"A new point of view on Math language" is a concept that aims to change the traditional way of teaching and learning mathematics by using a more visual and intuitive approach. It encourages students to understand the language and concepts of math in a more creative and practical way.

2. Why is there a need for a new point of view on Math language?

Many students struggle with traditional math instruction because it often relies heavily on memorization and abstract concepts. A new point of view on Math language offers a different approach that can help students better understand and apply mathematical concepts.

3. How does this new point of view on Math language impact student learning?

This new approach to math language can help students develop a deeper understanding of mathematical concepts and make connections between them. It also encourages students to be more engaged and motivated in their learning, which can lead to improved performance and achievement.

4. What are the key components of this new point of view on Math language?

The key components of this new approach include the use of visual aids, real-world examples, and hands-on activities to teach math concepts. It also emphasizes the importance of understanding the language and terminology of math, rather than just memorizing formulas and procedures.

5. How can educators incorporate this new point of view on Math language in their teaching?

Educators can incorporate this new approach by using a variety of teaching methods such as visual aids, group activities, and real-world applications. They can also encourage students to ask questions and make connections between different math concepts. Additionally, educators can provide opportunities for students to practice and apply their knowledge in different contexts.

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