Astronauts to Mars

ASTRONAUTS TO MARS
How soon will astronauts go to Mars? Those going on the trip are now making preparations. Several groups are in the race to Mars, including private industry and NASA. China wants to do everything on their own and does not want to participate. Other countries may join in the initiative to putting the first colonists on Mars.

Aiming for Time Travel to the Future
Spacecraft don’t launch directly at Mars; that would use up too much fuel. Instead, spacecraft launch towards the point that Mars is going to be in the future. They start at Earth’s orbit, and then raise their orbit until they intersect the orbit of Mars; right when Mars is at that point. The spacecraft can then land on Mars or go into orbit around it. This journey takes about 250 days.

Looking at the Mars chart, it looks like a very popular place with many USA and Russian spacecraft orbiting and landing there. A good number have failed to reach Mars. The closest Mars is to the Earth is around 35 million miles during a close and favorable opposition. Miss the closer oppositions every two years and the aphelion distance of Mars to the Earth can be a staggering 249 million miles away. The year 2018 is a good year to arrive at Mars when it's only 35.8 million miles away.

Here’s a list of Mars Oppositions from 2007-2020 (source)
Dec. 24, 2007 – 88.2 million km (54.8 million miles)
Jan. 29, 2010 – 99.3 million km (61.7 million miles)
Mar. 03, 2012 – 100.7 million km (62.6 million miles)
Apr. 08, 2014 – 92.4 million km (57.4 million miles)
May. 22, 2016 – 75.3 million km (46.8 million miles)
Jul. 27. 2018 – 57.6 million km (35.8 million miles)
Oct. 13, 2020 – 62.1 million km (38.6 million miles)

Data to the Year 2037
Date of Opposition
Feb 12 1995
Mar 17 1997
Apr 24 1999
Jun 13 2001
Aug 28 2003
Nov 07 2005
Dec 24 2007
Jan 29 2010
Mar 03 2012
Apr 08 2014
May 22 2016
Jul 27 2018
Oct 13 2020
Dec 08 2022
Jan 16 2025
Feb 19 2027
Mar 25 2029
May 04 2031
Jun 27 2033
Sep 15 2035
Nov 19 2037

Date of Closest Encounter
Feb 11 1995
Mar 20 1997
May 01 1999
Jun 21 2001
Aug 27 2003
Oct 30 2005
Dec 18 2007
Jan 27 2010
Mar 05 2012
Apr 14 2014
May 30 2016
Jul 31 2018
Oct 06 2020
Dec 01 2022
Jan 12 2025
Feb 20 2027
Mar 29 2029
May 12 2031
Jul 05 2033
Sep 11 2035
Nov 11 2037

Closest Distance (AUs / Millions of Miles)
0.67569 / 62.8
0.65938 / 61.3
0.57846 / 53.8
0.45017 / 41.8
0.37272 / 34.6
0.46406 / 43.1
0.58935 / 54.8
0.66398 / 61.7
0.67368 / 62.6
0.61756 / 57.4
0.50321 / 46.8
0.38496 / 35.8
0.41492 / 38.6
0.54447 / 50.6
0.64228 / 59.7
0.67792 / 63.0
0.64722 / 60.2
0.55336 / 51.4
0.42302 / 39.3
0.38041 / 35.4
0.49358 / 45.9

Two Edges Universe Unfolding

BIG BRAIN SPACE INSTITUTE
A SOLUTION FOR UNFOLDING THE TWO EDGES UNIVERSE
TWO EDGES: The Universe space time cosmos is unfolding and traveling faster than the speed of light in which the rate of expansion occurs. There is no limit as to how fast space time can stretch and contort. This leads to a remarkable structure filled with yet-to-understand formations and conditions.

The Universe has more than one edge. One edge is located at 13.77 billion years of time, representing the burst of the singularity known as the Big Bang, yet light has currently traveled to 46 billion light years away in every direction, which is the distance that the light has now reached. This latter numerical representation is the edge of the universe visible in all directions. This represents the farthest distance from the Earth in which cosmic light can reach us. It represents the radius of the observable Universe.

However, beyond the observable Universe lies more universe, or that which remains indirectly connect, yet detached by other definition, encompassed from the objects and matter whose light has yet to reach us and from matter which aggregates relative to specific regions from extinction lines (edges) where nothing more beyond is directly and optically observable.

It's this extinction boundary where light has cutoff. NASA has confirmed a glimpse of the "dark flow" existing beyond the extinction boundary migrated from a singularity.

http://www.telegraph.co.uk/science/science-news/3352360/Scientists-glimpse-dark-flow-lurking-beyond-the-edge-of-the-universe.html

Yet, as we have discovered, if we go back farther in time, there lies another edge to the Universe with objects that are made up of gravity and no light that we can observe for one reason or another.

We are finding, and will find more evidence, that the Universe is much more intricate and has more parts and mechanisms than we currently know. The Big Brain Space Initiate is currently working towards unraveling the mixed palette of space time leading to the edge of the Universe and beyond.

With these new discoveries and findings, it's likely the current Big Brain Space Initiative's telescope will evolve from the current Power Dynamic Telescope PDT into one that also incorporates powerful gravity sensors and/or gravity inferencing techniques as a super telescope to look into and detect things beyond the cosmic barrier and edge.

It's also possible to observe the focus of the observable to find and map the direct unobservable.

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