I believe the current M-Theory has that each point of spacetime is composed of 11 dimensions (1 of time, 10 of space). In our experience of the 4 dimensions (1 of time, 3 of space) we can move in one dimension (e.g. a line), two dimensions (e.g. a circle) or 3 dimensions (e.g. a Dali watch ;)). This is complete freedom of movement in these 3 dimensions. The other 6 dimensions are thought to be a Calabi-Yau* manifold at each point in 3D spacetime.
Can a point in 11-dimensional space move in Calabi-Yau space while moving in our 3D space? Would you have to rotate out of Calabi-Yau space, move in 3D, then rotate back into Calabi-Yau space?
E.g. (t[sub]0[/sub],0,0,0,[sub]0,0,0,0,0,0[/sub]) to (t[sub]1[/sub],1,2,3,[sub]0,0,0,0,0,0[/sub]) we experience as a single transition. Would (t[sub]0[/sub],0,0,0,[sub]0,0,0,0,0,0[/sub]) to (t[sub]1[/sub],1,2,3,[sub]0,0,4,5,6,0[/sub]) also be a single transition, or would it require rotating to (t[sub]0[/sub],0,0,0,[sub]0,0,0,0,0,0[/sub]), moving to (t[sub]1[/sub],1,2,3,[sub]0,0,0,0,0,0[/sub]), and then rotating to (t[sub]1[/sub],1,2,3,[sub]0,0,4,5,6,0[/sub])?
Since there is nothing special about (t[sub]n[/sub],x,y,z,[sub]0,0,0,0,0,0[/sub]) with all zeroes, it seems that you should have freedom of movement in any combination of spatial dimensions. Is this correct?
[sub]* Note that my knowledge of Calabi-Yau manifolds extends just far enough to spell it correctly.[/sub]