Is There a Shape with More than 2^{\aleph_0} Sides in the Euclidean Plane?

  • Thread starter cragar
  • Start date
  • Tags
    Shape
In summary, the conversation discusses the possibility of having a shape in the Euclidean plane with more than 2^{\aleph_0} sides, potentially through the use of fractals. The concept of "side" is also defined and it is concluded that such a shape would require a space with a larger dimensionality than the cardinality of the set of real numbers.
  • #1
cragar
2,552
3
Do you think it is possible to have a shape in the euclidean plane that has more
than [itex] 2^{\aleph_0} [/itex] sides. maybe some crazy fractal.
and if not in the plane would we maybe have to go to infinite dimensional space.
 
Mathematics news on Phys.org
  • #2
Define "side".

Anyway, we have that [itex]\{(x,y)~\vert~x,y\in \mathbb{R}\}[/itex] has cardinality [itex]2^{\aleph_0}[/itex]. So your figure would have to repeat its "sides" infinitely often.
 
  • #3
micromass said:
Define "side".

Well, if a "side" is an ordered pair of vertices then you'd need more than [itex]2^{\aleph_0}[/itex] possible values for each vertex in order to have more than [itex]2^{\aleph0}[/itex] possible ordered pairs of vertices.

That sounds like you need a space whose dimensionality is larger than the cardinality of R.
 
  • #4
thanks for the responses. defining a side with an ordered pair seems like a good idea
you it seems like you couldn't do it in the x-y plane. it does seem like I
have R^R choices though for possible shapes.
 
  • #5


I am unable to provide a definite answer to this question as it falls outside the realm of empirical evidence and scientific inquiry. The concept of a shape with more than 2^{\aleph_0} sides in the Euclidean plane is a mathematical abstraction that may not have a physical counterpart.

However, it is possible to explore this idea using advanced mathematical concepts such as fractals, which have infinite perimeter and can exhibit self-similarity at different scales. These fractals, while not having a finite number of sides, still exist within the confines of the Euclidean plane.

It is also worth considering that the concept of a "side" may need to be redefined in higher-dimensional spaces, as traditional definitions may not apply. In this case, it may be possible to have a shape with more than 2^{\aleph_0} sides in an infinite-dimensional space.

In conclusion, while it is difficult to definitively say whether a shape with more than 2^{\aleph_0} sides is possible in the Euclidean plane, the concept can be explored and studied using advanced mathematical concepts. Further research and exploration may lead to a better understanding of this abstract idea.
 

FAQ: Is There a Shape with More than 2^{\aleph_0} Sides in the Euclidean Plane?

1. What is the definition of a shape?

A shape is a two-dimensional figure that has a specific outline or form. It can be defined by its size, angles, and proportions.

2. How many types of shapes are there?

There are three main types of shapes: geometric, organic, and abstract. Geometric shapes include circles, triangles, and squares. Organic shapes are irregular and found in nature, such as leaves and clouds. Abstract shapes are non-representational and can be created by the artist's imagination.

3. How do you determine the perimeter of a shape?

The perimeter of a shape is the distance around its outer edges. To determine the perimeter, you can add up the lengths of all the sides of the shape.

4. What is the difference between a 2D and 3D shape?

A 2D shape only has two dimensions - length and width, and is flat. A 3D shape has three dimensions - length, width, and height, and has depth. 2D shapes can be drawn or printed on a piece of paper, while 3D shapes can be held and have volume.

5. How do you classify shapes?

Shapes can be classified in various ways, such as by their number of sides, angles, or symmetry. Some common classifications include triangles, quadrilaterals, polygons, and circles.

Similar threads

Back
Top