Advancing Matrix Array

ADVANCING MATRIX ARRAYS

A simple matrix is typically a rectangular array of elemental numbers. The Big Brain Machine Initiative takes this several levels deeper by creating the Advancing Matrix Array, which is an N-dimensional matrice that becomes "arrays of dimensions."

This can include the Calculus of space, time, and elements of relativity and beyond. Basic rules of the fundamental matrix is extended with transformations. For example, space is warped, time travel is divided, and relativistic holes are dimensionally added. Space is juxtaposed in the event of gravity lensing.

A matrix can control an array of LEDs. Perhaps more importantly, a matrix can control an array of space time and the elements of relativity. This type of matrice could control relativity space time flux for a time travel pod, or it could serve as the manifold tuner in a matter-antimatter chamber.

It can also be used to control Universe gates and doorways. It could help open a portal to a new place in space and time. It could serve as the navigational control in the shifting proximity of space altered by gravity wells. Perhaps it could help a machine probe circumnavigate the outer fringes of Black Holes to gain a greater understanding into their relativistic jets.

Beginning a Matrix Array experiment

Advancing Matrix Arrays have many uses for the insides of massive Transposition Machines by controlling, setting, creating, and transforming their internal parameters and NDIMS.

The AMAs work well in the technology of MIMs, machines in machines, and transforming not only matrices but entire machines. Another example is in the performance of JAVA design computational tools. Referring to the matrix 3 diagram, in the example of Java computational design tools, the 3 dimensional array of integer in the code can be diagrammed like the figure. A 3 dimensional array is an array of arrays of array. The length of the first dimension is matrix3.length. The length of the second dimension is matrix[0].length. The length of the third dimension is matrix[0][0].length. Like 2 dimensional arrays, this 3 dimensional array also has matrix[0][0].length , matrix[0][1].length , matrix[1][0].length , matrix[1][1].length , matrix[2][0].length and matrix[2][1].length independently, but again they are all same value in this code. (see http://igeo.jp/tutorial/6.html) 

Controlling Transposition Machines with NDIMS

Big Brain Machine Initiative to Explore Other Worlds
HOW TO CONTROL TRANSPOSITION MACHINES WITH NDIMS
You can power up a massive Transposition Machine and do amazing things with SW to change its guts, configurations and functions. Tune one to create a gate to the Universe! Open doorways to other worlds...

1st Proto QuadLyzer represents Quantum Worlds

The following shows a 3x3 two dimensional matrix. These are easily set with software and hold nine matrix elements.

xxx
xxx
xxx

You can generally fit up to 90,000 of these matrices into a single Transposition Machine. More useful may be the fitting of cube matrices. These three dimensional patterns are sub-machine matrices that can hold more information and content and do more work variety. A 3x3x3 three dimensional matrix will hold 27 elemental nodes. Up to 30,000 are held in a single TM. Matrices can include cubes beginning with the series 1,2,3,... until the TM is filled and reaches capacity.

Example Ndim inside a TM

The project is working on n-dim objects that exceed cubes. Ndims are objects that have additional dimensions attached. Depending on the size of the attached dims, the NDIM will vary in size. NDIMs are limited by the size of the individual dims. One example is a 3.3.3.t.tx which has x.y.z.t.d(tx) defined by space, time and the Integral Calculus rate of change of transforming. The differential equation defines the splay of NDIMS within the TM realm.

6 of these made the first TM

NDIMS can be used to develop apps representing nodes in the Universe and perhaps Quantum nodes in the Quantum world. This allows a single Transposition Machine to transpose a representable Universe section. The size of the TM will determine the size of the representable Universe section or gate. It is projected that gates to the Universe can be created from massive TMs of ultimate size containing significant NDIMs.

Spinoffs may create a Universe Gate

Creating a Universe Gate will be highly useful for understanding not only the Universe doorways but perhaps gaining entrances to the Quantum world. A gained entrance to the QW will enable UDs or Universe Doorways. This topic is briefly discussed in the Quantum Quadlyzer and related blogs.


 
LINKS
Quadlyzer Quantum Analyzer
New Universe Theory
Emerging Worlds of Massive Transposition Machines
Controlling Transposition Machines with NDIMS
Transposition Era
Era
Make Multiple Propeller Machines from One
Green Brain Blob
Matrix of Mathematical Elements