The Paradox of cube 1x1

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The 1x1 cube is impossible to solve because it is already solved! This is a paradox!
 
Cube where each face is the same colour. You need 6 regular cubes to make one, disassembling each one for enough pieces of the colour
Ohhh, those really clean looking solid color cubes! I really want to make one, but I have other priorities to spend my money on for now.
I didn't make one myself, it's just a limited edition cube. But it's still really cool.
 
The 1x1 cube is impossible to solve because it is already solved! This is a paradox!

I don't think so.
If we define the word "solve" as "doing an act that brings the cube into a solved state", then the act of "doing nothing", which is a mathematically valid move, also known as the "identity element" (https://en.wikipedia.org/wiki/Identity_element) fits into the description, and therefore: doing nothing solves the cube.

Or, more precisely:

Let G be the group of cube moves acting on the set C of cube configurations, and let e ∈ G denote the identity element. Let s ∈ C be the solved state. Define a move g ∈ G to solve a configuration x ∈ C if g⋅x=s.

Then, in particular, for the solved configuration s, we have e⋅s=s.

Therefore, since e maps s to itself, the identity element satisfies the definition of a solving move when applied to an already solved cube. Q.e.d.
 
I don't think so.
If we define the word "solve" as "doing an act that brings the cube into a solved state", then the act of "doing nothing", which is a mathematically valid move, also known as the "identity element" (https://en.wikipedia.org/wiki/Identity_element) fits into the description, and therefore: doing nothing solves the cube.

Or, more precisely:

Let G be the group of cube moves acting on the set C of cube configurations, and let e ∈ G denote the identity element. Let s ∈ C be the solved state. Define a move g ∈ G to solve a configuration x ∈ C if g⋅x=s.

Then, in particular, for the solved configuration s, we have e⋅s=s.

Therefore, since e maps s to itself, the identity element satisfies the definition of a solving move when applied to an already solved cube. Q.e.d.
I was ironic but this for me Is difficult to understand.
 
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I don't think so.
If we define the word "solve" as "doing an act that brings the cube into a solved state", then the act of "doing nothing", which is a mathematically valid move, also known as the "identity element" (https://en.wikipedia.org/wiki/Identity_element) fits into the description, and therefore: doing nothing solves the cube.

Or, more precisely:

Let G be the group of cube moves acting on the set C of cube configurations, and let e ∈ G denote the identity element. Let s ∈ C be the solved state. Define a move g ∈ G to solve a configuration x ∈ C if g⋅x=s.

Then, in particular, for the solved configuration s, we have e⋅s=s.

Therefore, since e maps s to itself, the identity element satisfies the definition of a solving move when applied to an already solved cube. Q.e.d.
From the math ive taken so far, I'm not extremely familiar with this stuff yet, but I think I understand. So, with the act of nothing being something like zero, isn't there still the idea that different things can be done, but the end result is the same: zero. This is called dependency I believe. In the case of the 1x1, where we can't do anything, we have independency where there is only trivial solution?
 
From the math ive taken so far, I'm not extremely familiar with this stuff yet, but I think I understand. So, with the act of nothing being something like zero, isn't there still the idea that different things can be done, but the end result is the same: zero. This is called dependency I believe. In the case of the 1x1, where we can't do anything, we have independency where there is only trivial solution?
Make 1x1 Its similar meditation 😅
 
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