Uploaded August 2026 | Updated September 2026, 2 weeks ago
All my life, the research that I've put towards studying invisibility and its inverse by-product holodeck, has mainly been in a flat 2-Dimensional form of what I call cross-sections, polygons nested within the same kinds of polygons. What distance I've ventured beyond a flat space has purely been in illustrations. Nothing precise.
What I'm hoping to do, is go beyond the 2-D and into the third dimension.
Yesterday, I completed a fully-connected graph in the form of a dodecahedron light-interface.
What interests me are the parallel lines that are going into and out of an interface, creating an invisible outer boundary and an interior holodeck by-product.
I may need to obtain color copies from my friends at Oberst Printing Company on West 2nd Street in Owensboro Kentucky, of my fully-connected dodecahedron graph in order to toy around to determine what are all of the parallel straight line groups that pass thru physical 3-Dimensional light-interfaces.
I'm also working on physical models, interpreting these parallel lines going thru them and seeing how they relate or differ from its 2-dimensional cross-sections counterpart
Previous video:
youtu.be/NQEzU4a39-M?is=u7ZdcLrsCl-T7H2i
#fractal #intersections #polyhedra #points #graphtheory
All my life, the research that I've put towards studying invisibility and its inverse by-product holodeck, has mainly been in a flat 2-Dimensional form of what I call cross-sections, polygons nested within the same kinds of polygons. What distance I've ventured beyond a flat space has purely been in illustrations. Nothing precise.
What I'm hoping to do, is go beyond the 2-D and into the third dimension.
Yesterday, I completed a fully-connected graph in the form of a dodecahedron light-interface.
What interests me are the parallel lines that are going into and out of an interface, creating an invisible outer boundary and an interior holodeck by-product.
I may need to obtain color copies from my friends at Oberst Printing Company on West 2nd Street in Owensboro Kentucky, of my fully-connected dodecahedron graph in order to toy around to determine what are all of the parallel straight line groups that pass thru physical 3-Dimensional light-interfaces.
I'm also working on physical models, interpreting these parallel lines going thru them and seeing how they relate or differ from its 2-dimensional cross-sections counterpart
Previous video:
youtu.be/NQEzU4a39-M?is=u7ZdcLrsCl-T7H2i
#fractal #intersections #polyhedra #points #graphtheory






![A Low Resolution Photographic Portal Model - In Viewable Boxes!
If these 18-viewing angle boxes turn out alright, Im gonna go back down to the modern river park and take all maximally-filled 26-viewing angles of the new park! These boxes require a double copy of 30 pictures. The new boxes will need a double copy of 54 total pictures to produce all 26-viewing angles!
Low resolution is better than no resolution.
The cubical cells in these smaller boxes dont have near the resolution of my Photographic Portal Model, but viewers will be able to discern it, once the corner-angle views are put into place.
Of course, the edge and corner-angle views will still need to be morphed to blend in better and to create a much more 3-D feel to the holodeck interior, just as I determined with the Photographic Portal Model. Thats the best that can be done on a budget and time constraints. Also, it wouldnt be near as tedious to accomplish!
[Ill be getting much more precisely cut blank cardstock louvers for these models tomorrow, from Oberst Printing Company on West 2nd Street in Owensboro Kentucky. And thats when the real work begins!]
#photography #invisibilitycloak #Holodeck #portals
#dreamscometrue A Low Resolution Photographic Portal Model - In Viewable Boxes!](https://i.ytimg.com/vi/rYhkWZXOYKs/mqdefault.jpg)



