Showing posts with label resolution. Show all posts
Showing posts with label resolution. Show all posts

Wednesday, March 28, 2012

Big Brain Increases ULT Resolution

PROPELLER POWERED BIG BRAIN
BIG BRAIN INCREASES ULT ULTRA LARGE TELESCOPE RESOLVING POWER BY A QUANTUM LEAP
ULT Stars: 1st Test @ New Larger Diameter
MY GOD! IT'S FULL OF STARS!
The first star field and planetary tests run at this new highly powerful leap in resolution setting, technique, hardware redesign and instrumentation build has led to discovery within the rings orbiting the globe of planet Saturn. Preliminary pointing the ULT into the stellar abyss has revealed a mind boggling and spectacular number of stars! (see shown image of 1st stellar light at the new increase in telescope size) What's happening here? The ULT has become larger by a quantum leap!

Previously, the ULT was defined by the following equation:

Initial Formula Governing ULT Resolution

R ~ {[1.22 (Lambda)]/[(D1)+(D2subn1,n2,n3...)]}/~P

in the mathematical proportional expression where P is the Penetrator setting (1-10), Lambda is the wavelength of observable light, R is the resolution, D1 is the ULT aperture, D2 is the Adjunct setting, and n is the node. As the Adjunct setting increases, or the wavelength of light decreases, or the aperture increases, or a combination of the above, the resolution of the ULT increases.


The new formula introduces the distance of the Adjunct from the Earth and the distance of the Adjunct from the observational destination. As the distance of the Adjunct decreases to the observational destination, the resolution increases. To calculate the diameter of the ULT, which is based on resolution of the Observational Destination, a comparison is made of the distance to the object. This reworks the proportion as given.

It's recommended to establish a baseline with each Adjunct relative to the Observational Destination. The final analysis determines resolution based on the distance to the Earth which in turn is used to calculate the full aperture. Remember the formula is typically using Arc Radians and may require conversion.

What is the conclusion? This indicates the ULT can be much larger in aperture compared to its original 945-inch design which used only one Adjunct. How much larger? The actual numerical indication is shocking. By adjusting Adjunctive arrays, the telescope can alter and reconfig its full aperture diameter by increasing with a factor of a hundred times. The original 24 meter telescope becomes a 2,400 meter telescope which comes out to about 1.5-mile wide. This is a preliminary estimation and the actual diameter may go into a thousand times larger, thus creating a 24,ooo meter telescope at 15 miles wide, though incredulous at it may seem, the prelim results are indicative of a confirmation of these numbers.

Keep in mind the Universe Penetrator places a (up to) 10X factor on top of this aperture. So the 1.5 mile wide telescope with a 100X Adjunctive becomes 15 miles in diameter, and the 15 mile wide telescope with a 1,oooX Adjunctive becomes 150 miles in diameter. These telescopes can make serious discoveries and perform cutting edge research. The straight resolution of these apertures can be calculated directly with 1.22Lambda/D. 

New Terms
Observational Destination

Saturday, March 3, 2012

NULT Resolution

BIG BRAIN'S NULT TELESCOPE LEAPS UP IN RESOLUTION
No longer is the Big Brain's NULT telescope solely dependent of aperture to determine its resolution. In fact, it was and it wasn't. How can the NULT be in two places at the same time? This ability of the NULT to resolve beyond its aperture changed early on in the program with the introduction of the Adjunct, but was not reported due to time restraints and rapid developments of a robust program. The resolution proportion ~ of the NULT is currently

Formula Governing NULT Resolution

R ~ {[1.22 (Lambda)]/[(D1)+(D2subn1,n2,n3...)]}/~P

in the mathematical proportional expression where P is the Penetrator setting (1-10), Lambda is the wavelength of observable light, R is the resolution, D1 is the NULT aperture, D2 is the Adjunct setting, and n is the node. As the Adjunct setting increases, or the wavelength of light decreases, or the aperture increases, or a combination of the above, the resolution of the NULT increases.

Space Adjunct Invented

BIG BRAIN INVENTS THE SPACE ADJUNCT
Adjunct Space Distribution
across Space Domain
Space Adjuncts are amazing. If you know where to look, they're all over space domains! The person that holds the key to understanding Adjuncts will command the NULT Telescope in remarkable ways.
_____________________

Utilizing the Jump Points is a remarkable invention by the Big Brain for applications engaging the New Ultra Large Telescope. The advent of of the Big Brain's Adjunct invention will enable its NULT Telescope to see more clear, perform better, and attain much higher resolution that is not based on sole aperture. The NULT Telescope will make use of multiple Adjuncts with the help of NASA. Adjuncts function through Nodes. A list of nodes will be created to determine multiple Adjuncts for NULT. NULT has implemented on occasions, in the collection of specific data, the Adjunct. The Adjunct is used for near objects in our Solar System and works by accelerating the resolution of the telescope. This completely excludes tedious and time consuming techniques such as base line interferometry on stars. It works well for Lunar data and selected solar system objects. Each Adjunct represents a Node and a Portal. Multiple Adjuncts are currently being put into place. How many Adjuncts does the NULT have? So far, one is fully utilized, but as researched, the creation of and access to multiple Adjuncts will become an important part of NULT implementation in the future. In the illustration, A through J are Solar System bodies and 1 through 14 are NULT implementation Adjuncts.


Annotations
A - Earth
B - Moon
C - Mercury
D - Venus
E - Mars
F - Jupiter
G - Saturn
H - Uranus
I - Neptune
J - (Pluto)