Rocketless spacecraft, propelled instead by sound

Space travel by sound pressure

At 195 decibles, the sound of a rocket launched into space can permantly deafen or kill anyone closer than two miles away.

In space however, the powerful sound pressure of 195 decibles remains while it conveniently cannot be heard.

For example, we don't hear our earth powering through space at 1.774 x 10^26kg decibles momentive-force, for the same reason. (29.78 km/s speed of earth through space X 5.957 x 10^24 kg mass of earth)

UVB at 384.2 nm and 780 terahertz divided by infrared at 886 nm and 338.3 terahertz = 0.4336. Our manned spacecraft is at least 40 meters long with a rotational center at 0.4336 of its length. This produces a 13% extended offset of the ships fuselage to one side only, providing non-coherent interference with dark matter at all times as the ship spins.

87% of the ship's fuselage spins centered on 0.4336 of the length and exhibits a coherent interference with dark matter.

The extended offset or drive tiller is at the leading end of the ship like a rudder, and as the forward and aft boom thrusters (on opposite sides) activate in tandem at between 90 and 180 decibels, they generate a flat spin. Our 40 meter long ship must rotate at 6.6 revolutions per minute in order to provide 1g of gravity for the humans aboard the extended offset section.

The two remaining boom thrusters are coordinated to turn the fuselage into a spiral trajectory forward, with their thrust angled at up to 30 degrees from center.

Dark matter is attracted to the end of the fuselage opposite the extended offset section. In tight concentration, molecules of HeH13 form a 3D mirror of the extended offset profile. This high concentration of dark matter is so attracted to the ship that it pulls against the ship's momentum, thus forcing the extended offset to stay in front of the ship's forward motion.

Newton's third law of motion, as it applies to dark matter demands that artificially displaced HeH13 molecules must have a chance to bounce back. As the bow of our ship (extended offset section) displaces dark matter (the action), the disoriented molecules of dark matter flow along the fuselage to the opposite end where the dark matter is compressed and reordered (the reaction).

The mirrored concentration of dark matter is invisible to the human eye but, it can be detected while the vessel spirals through space.

The ship travels in worm hole like spirals, rotating forward while providing artificial gravity for the human crew. Our ship leaves no trail of any kind and only needs power for the boom thrusters (very high powered speakers), and human life support to change water into oxygen, regulate nitrogen, etc.

The speed of our ship through space is estimated to be 87 km/s (195,000 mph), or about the speed of Oumaumau through space.

The history of dark matter

Dark matter energy discovered

In the late 1920s, early 1930s, a German scientist placed onion roots very near each other without touching and yet they were communicating, in complete darkness. He knew the energy output between them was far too low to measure with the machinery available at the time hence, he used yeast cultures that would react with the far UV between 180 nm and 232 nm.

Other early experiments included, two organic cultures that were placed next to each other in separate quartz containers, under total darkness. And while one culture was slowly killed, the other culture somehow received the instruction to die and died as well.

It was later discovered that all organic molecules talk to each other in darkness, perpetually and primarily at 230.6 nm/1.3 petahertz. The German scientist Otto Rahn called it "the invisible radiations of organisms" and wrote a book about it. Inversely however, dark matter has no energy of any kind when exposed to sunlight as it can only exist in outer space or in the darkness of our bodies beneath our skin.

FYI, the sun does not produce far UV of any kind.

Dark matter relaxing in space = 2(HeH13)

99% of the space outside our atmosphere consists of 23% helium and 76% hydrogen.

This ratio converts into one helium atom for every thirteen hydrogen atoms (HeH13). In a relaxed state, hydrogen becomes H2 with two hydrogen atoms sharing their electrons.

The arrangement of HeH13 is identical to a phosphorus atom with five hydrogen atoms occupying the outer valance/shell. With this arrangement there is always a single hydrogen atom without a partner.

In space, these highly energised solo hydrogen atoms of HeH13 bundles find each other, bond and create siamese bundles of 2(HeH13).

The importance of dark waves

In space, there are 262,000,000 paired HeH13 molecules per one far UV dark wavelength sphere of 230.6 nanometers in diameter. One of these spheres propagates at 1.3 petahertz and 0.000,000,000,000,000,000,000,177,4 decibles from the dark-wave sphere at infinite directions from itself. (Illustration, right side)

Pockets of paired HeH13 molecules can be found in the earths crust and will leach into the atmosphere at night but, they cannot survive in daylight.

In our atmosphere, there are 524,000,000 O2N8 molecules per one near UV wavelength sphere of 461.2 nanometers in diameter (2 X 230.6). One of these spheres propagates at 650 terahertz and 0.000,000,000,000,000,000,000,63 decibles from the dark purple wave sphere at infinite directions from itself. (Illustration, left side)

Intercommunication between carbon based organisms such as Rahn's onion roots cannot take place with the visible O2N8 near UV molecule, especially during the day. The bond of an O2 molecule must be broken down and transformed into PO4 @220/480pm, CO2 @330pm, NO2 @ 320pm, or SO2 @300 picometers, before it can generate communication in the dark of night or underground in the far UV, UVB spectrum of 220 to 330 nanometers (0.9 to 1.3 petahertz).

The HeH13 molecule

Most of the universe, its suns, gas giants, and black holes are made up of 23% helium and 75% hydrogen or 1 atom of helium to 13 atoms of hydrogen. This translates to exactly 13 hydrogen atoms for every 1 helium atom in outer space or a 13 hertz frequency.

Alternatively, 13 hertz is an important brain wave associated with relaxation and positivity, exhibiting a wavelength of 23,060,958 meters.

1 helium atom equals 6.69164 x 10^-27 kg.
13 hydrogen atoms equals 21.72183 x 10^-27 kg.

The total weight of HeH13 = 28.41347 x^-27 kg (neutrally charged, repulsed by the sun, attracted to the cold darkness of space, moves like an Omoeba)

The Helium atom is a noble gas hence it cannot be bonded with in traditional ways hence, why we can fly through the molecular dark matter of space unimpeded.

The attraction of just 13 hydrogen atoms to virtual covalent bond positions similar to phosphorus helps define dark matter molecules as they associate with each other in outer space.

The shape of HeH13

A helium atom floating free within a cube of eight hydrogen atoms within a pentahedron of five hydrogen atoms.

Dark matter energy specs

The math

The five constituent wavelengths of dark matter:

Far UV at 1.3 petahertz/230.6 nm
Near UV at 780 terahertz/384.2 nm
Near visible UV at 650 terahertz/461.2 nm
Infrared at 338 terahertz/886 nm
Microwave at 260 terahertz/1153 nm

The air we breath:

Earth's troposphere contains 78% nitrogen, 21% oxygen, and 0.9% argon. This translates to 203 atoms of nitrogen and 48 atoms of oxygen to every (1) one atom of argon.

Source of perpetual motion:

Every physical mass moves perpetually through the space of dark matter by the energy generated at its rotational center, located at 0.43363 times its lengthiest dimension.

pE = (1.3 ÷ 230,609,583) ÷ 1.3 = .43363

pE = 384.2nm ÷ 886nm = .43363

Space time

Dark matter is inextinguishable, hence time does not exist for dark matter.

Dark matter does not reflect light and is very difficult to see without bandwidth amplification as shown.

Wobble and pressure

0.4336333... or 0.5663666... X mass = pE

Near UV at 384.2 nanometers ÷ infrared at 886 nanometers = 0.43363 @0.000,000,000,000,177,3875 decibles perpetual energy.

An egg shaped pressure bubble of 10 kilograms per sq. kilometer is centered at 0.43363 of physical bandwidth.

Earth's dark matter atmosphere

How to extract the elevation of each atmospheric level from Troposphere to Thermosphere, from the dark matter equation.

Sound pressure momentum of dark matter

Our solar system as defined by dark matter

This chart defines our solar system by way of the five bandwidths of dark matter energy. Force, here on earth has a singular gravitational speed as any mass falls to the ground, thus becoming static force.

In space however, masses such as planets do not hit the ground as their motion is everlasting, perpetual while orbiting the sun at their unique velocity.

Hence a planet's (mass) moving through space at its exclusive velocity (kilometers/second) represents its momentive sound pressure. Think of it as a moving train and its potential to obliterate anything in its orbital path.

A planet's moons however travel through space at the same speed as their parent planet, hence it is only their difference in masses that are relevant. Most of the quotients are from dividing the mass of each moon to its parent planet however, the mass of Saturn's moon Titan is also compared to other Saturn moon masses.

Chart legend:
Magenta = 1.3 petahertz, 230.6nm, 1.774 x 10^-12 db far UV
Black = 780 terahertz, 384.2 nm, 4.925 x 10^-12 db black light UV
Sky blue = 650 terahertz, 461.2nm, 7.01 x 10^-12 db blue visible light
Red = 338.3 terahertz, 886 nm, 2.62 x 10^-11 db infrared
Pink = 260 terahertz, 1153nm, 4.43 x 10^-11 db microwave

Dark matter sound pressure chart

Values are in decibles intrinsic to the 886nm infrared band.

Saturn and its moons

The mass of Saturn at *(5.633 x 10^26 kg) times *(8.75 km/s) = (4.925 x 10^27 kg) momentive force.

* Reported values
Saturn - (9.68 km/s) <0.903>
(5.683 x 10^26 kg)

Saturn's moons:

Titan (1.34435 x 10^23 kg) <>
(5.633 x 10^26 kg) ÷ Titan at (1.371 x 10^23 kg) = (4,104.68) mass differential. Inversely = (0.000243625). Amoniated water, rock, thick atmosphere of nitrogen & methane.

Rhea (2.306 x 10^21 kg) <1:1>
Titan (1.3 x 10^23 kg) ÷ Rhea at (2.306 x 10^21 kg) = (56.37) mass differential. Inversely = (0.01774). 25% rock, 75% water, in hydrostatic equilibrium.

Lapetas (1.7475 x 10^21 kg) <>
Titan (1.371 x 10^23 kg) ÷ Lapetas at (1.72 x 10^21 kg) = (79.74) mass differential. Inversely = (0.01254). Ice, massive equatorial ridge 3/4 way around the moon. Two hemispheres exhibit opposite coloring, one dark and one light.

Dione (1.05 x 10^21 kg) <0.9524>
Titan (1.3 x 10^ 23 kg) ÷ Dione at (1.0 x 10^21 kg) = (130) mass differential. Inversely = (0.007692). Silicate rock and water ice in equal mass.

Alternatively and/or complimentary,
Saturn (5.633 x 10^26 kg) ÷ Dione at (1.06 x 10^21 kg) = (531,410) mass differential. Inversely = (0.0000018818).
(886nm x 6 = 5316)

Enceladus has the most reflective surface in our solar system. Spews liquid from its surface. Mostly water vapor, small amounts of nitrogen, carbon dioxide, and methane.
Saturn (5.633 x 10^26 kg) ÷ Enceladus at (9.98 x 10^20 kg) = (5,644,000) mass differential. Inversely = (0.0000001772).

The sun, Jupiter and its moons

Our solar system starts with the marriage of Jupiter to our sun.

In between our sun and the planet Jupiter, in space at about 745,083 kilometers from the center of the sun is the Barycenter. Our sun orbits this virtual pivot point at (0.0125 km/s) times the sun's adjusted mass at *(2.0154 x 10^30 kg) = (2.62 x 10^28 kg) momentive force.

Jupiter orbits the Barycenter at (13.06 km/s) times Jupiter's adjusted mass at *(2.0154 x 10^27 kg) = (2.62 x 10^28 kg) momentive force. Hence Jupiter and our sun have identical values of momentive force.

The sun and Jupiter travel along their orbital paths at identical momentive forces, (2.62 x 10^28 kg).

*Reported values:
Sun - (1.989 x 10^30 kg) <1.013>
Jupiter - (1.898 x 10^27 kg) <1.062>

Jupiter's moons:

Ganymede (1.4819 x 10^23 kg) <1.079>
Jupiter at (2.0154 x 10^27 kg) ÷ Ganymede at (1.6 x 10^23 kg) = (12,540) mass differential. Inversely = (0.000,07974). Silicate rock and water.

Io (8.9319 x 10^22 kg) <1:1>
Jupiter at (2.0154 × 10^27 kg) ÷ Io at (8.9319 x 10^22 kg) = (22,564.068) mass differential. Inversely = (0.0000443182). 400 active volcanoes, most volcanic in our solar system.

Europa (4.8 x 10^22 kg) <>
(2.0154 x 10^27 kg) ÷ (4.91 x 10^22kg) = (41,046.8) mass differential. Inversely (0.000,024,362,5). Silicate rock, frozen crust, like our moon.

Calista (1.0759 x 10^23 kg) <1.056>
(2.0154 x 10^27 kg) ÷ Calista at (1.136 x 10^23 kg) = (17,741.197) mass differential. Inversely = (0.0000563659).
Most heavily cratered moon in the solar system, ice, CO2, silicates.

Himalia (4.2 x10^18 kg) <.9743>
(2.0154 x 10^27 kg) ÷ (4.092 x 10^18 kg) = (492,521,994.135) mass differential. Inversely = (0.000,000,203,03). No info on composition, water?

Uranus and its moons

The mass of Uranus at *(8.86 x 10^25 kg) times *(7.0 km/s) = (6.202 x 10^26 kg) momentive force. (886nm x 7 = 6202)

* Reported values
Uranus - (6.79 km/s) <1.03>
(8.681 x 10^25 kg)

Uranus moons:

Titania (3.4 x 10^22 kg) <1:1>
(8.86 x 10^25 kg) ÷ Titania at (3.525 x 10^22 kg) = (2,513.5) mass differential. Inversely = (0.0003978). Equal amounts of rock and ice.

Oberon (3.076 x 10^22 kg) <>
(8.86 x 10^25 kg) ÷ Oberon (3.14 x 10^22) = (2,822) mass differential. Inversely = (00.0003544) Equal amounts of rock and ice.

Umbriel (1.73 x 10^22 kg) <1.040>
(8.86 x 10^25 kg) ÷ Umbriel (1.8 × 10^22 kg) = (4,925) mass differential. Inversely = (0.00020303). 60% ice, 40% rock & carbonics, organics.

Ariel (1.25 x 10^22 kg) <1:1>
(8.86 x 10^25 kg) ÷ Ariel (1.25 x 10^22) = (7,088) mass differential. Inversely = (0.000141083). Equal parts ice and rock.

Miranda (6.4 x10^20 kg) <0.9825>
(8.86 x 10^25 kg) ÷ Miranda (6.28 x 10^20 kg) = (141,083) mass differential. Inversely = (0.000007088). Hydrostatic equilibrium, rock and ice.

Neptune and moon

The mass of Neptune at *(9.8 x 10^25 kg) times *(5.025 km/s) = (4.925 x 10^26 kg) momentive force.

* Reported values
Neptune - (5.43 km/s) <.957>
(1.024 x 10^26 kg)

Neptune moon:

Triton (2.139 x 10^22) <.930>
(9.8 x 10^26 kg) ÷ (1.99 x 10^22 kg) = (4,925) mass differential. Inversely = (0.00020303). Rock and ice, in hydrostatic equilibrium.

Pluto and its moons

Pluto and its moon Charon have the same flavor of marriage as our sun and Jupiter (described earlier on this page).

The two masses of Pluto and Charon orbit the same point in space, a Barycenter at 1,560.3 kilometers from the center of Pluto.

Pluto orbits the Barycenter at 5.41 kilometers per second and exhibits 70,370 kilograms of momentive force.
(5.41 km/s times mass of Pluto at (1.301 x 10^22 kg) equals 70,370) Pluto is 70% rock.

The moon Charon orbits the Barycenter at 46.9 kilometers per second and also exhibits 70,370 kilograms of momentive force.
(46.9 km/s times mass of Charon at (1.5 x 10^21 kg) equals 70.370)

FYI Pluto + Charon = (1.451 10^22 kg) and are the only mutual tidal lock in our solar system.

The mass of Pluto at (1.301 x 10^22 kg) × *(4.767 km/s) = (6.202 x 10^22 kg) momentive force. (886nm x 7 = 6202)

* Reported
Pluto - (4.62 km/s) <1.032>

Pluto (1.301 x 10^22 kg) ÷ Charon (1.441 x 10^21 kg) = (9.028) mass differential. Inversely = (0.11075). 55% rock, 45% ice.

Hydra (3.0 x 10^15 kg) <>
(1.301 x 10^22 kg) ÷ Hydra at (3.17 x 10^15) = (410,468) mass differential. Inversely = (0.00000243625). Water, ice.

Nix (2.6 x 10^15 kg) <1.016>
(1.301 x 10^22 kg) ÷ Nix at (2.641 x 10^15 kg) = (492,616.433) mass differential. Inversely = (0.00000203). Ice and a mysterious redish color, elongated shape.

Kerberos (1.65 x 10^15 kg) <1.006>
(1.301 x 10^22 kg) ÷ Kerberos at (1.631 x 10^15) = (797,400) mass differential. Inversely = (0.000001254). Ice and rock, 2:1 elongated shape.

Styx (7.5 x 10^14 kg) <.9777>
(1.301 x 10^22 kg) ÷ Styx at (7.333 x 10^14) = (1,774,897.68) mass differential. Inversely = (0.0000005634). Water and ice.

Mars, doorway to our solar system's interior

Mars has the unique position as being the asteroid-belt monitor.

Our asteroid belt encapsulates locations at 0.43363 and 0.56636 of Jupiter's average distance from the sun.

Jupiter is 778 million kilometers from the sun thus:

479 million km, outer boundary of asteroid belt
441 million km (778 km x .56636)
-389- mkm middle distance
337 million km (778 km x .43363)
329 million km, inner boundary of asteroid belt
228 million km, Mars from the sun

These are the sweet spots of dark matter and as you can imagine from this, a powerful dose of electromagnetic energy emanates from every moving object within those virtual orbits.

And as you can see, Mars has box seats to the auraborialus of non-reflective light (dark energy light) generated by the electromagnetic energy of the belt.

The adjusted mass of Mars and it's small irregular moons at *(6.4 x10^23 kg) times *(24.11 km/s) = (1.5505 x 10^25 kg) momentive force.

*Reported values
Mars - (6.39 x 10^23 kg) <1.001>
(24.08 km/s)

Mercury

The adjusted mass of Mercury at *(3.1 x 10^23 kg) times *(47.36 km/s) = (1.5505 x 10^25 kg) momentive force.

Mercury orbits the sun with the same momentive force as Mars.

*Reported values:
Mercury - (3.285 x 10^23 kg) <0.944>
(47.36 km/s)

Venus

The adjusted mass of Venus at *(5.069 x10^24 kg) times (35 km/s) = (1.774 x 10^26 kg) momentive force.

*Reported values:
Venus - (4.867 x 10^24 kg) <1.041>

Earth and moon

The adjusted mass of earth at *(5.957 x 10^24 kg) times (29.78 km/s) = (1.774 x 10^26 kg) momentive force.

Earth at *(5.957 x 10^24 kg) divided by the moon at *(7.47 x 10^22 kg) = (7.974) mass differential. Inversely = (0.01254). Iron, sulfur, nickel (best guess) and surface has silicon, iron, calcium, and oxygen.

Venus and Earth travel along their orbits at the same momentive force.

The pressure/time differential of a full moon versus a new moon is called the Metonic cycle. It takes 19 earth years to complete one Metonic cycle with the moon. The current Metonic cycle started in March of 2015. Each new moon of the cycle represents two periods of space/time at 115.3 nanometers or 260 terahertz.

*Reported values:
Earth - (5.972 x 10^24 kg) <.997>
Moon - (7.347673 x 10^22 kg) <1.058>

Sound pressures of our solar system in decibles

The difference between the momentive sound pressure of our sun and the tiny planet of Pluto is only 422,581 to 1.

And you will notice that Uranus has a higher momentive sound pressure quotient than its larger neighbor Neptune.

Sound pressure momentum and the subset of mass differentials intrinsic to planets with moons is how dark matter energy propels and maintains our solar system.