← Back to category

Gravitational Spacecraft

Inventor: Fran De Aquino
Year: 2000
Device: System-G
Folder: aquino
Original: Open article
Confidence
0.30
Practicability
0.20
Evidence
0.20
Fringe Score
0.90
Risk
0.30
TRL
3

Goal

To nullify or reverse the gravitational mass of a body using ELF electromagnetic fields, enabling propulsion and super-luminal travel.

Problem

Inability to control gravity for propulsion and to achieve high-speed space travel.

Concept Summary

The device uses extremely low frequency (ELF) electromagnetic radiation generated by a dipole antenna that is absorbed by an annealed iron lamina (or aluminum foil). According to the author's theory, the ELF field creates a photon shield that blocks graviton exchange, making the gravitational mass of the object effectively zero. With zero gravitational mass, a small thrust (e.g., 10 N) can produce large accelerations, allowing a spacecraft to exceed the speed of light.

Detailed Description

The author derives equations linking electromagnetic parameters to gravitational mass reduction. A critical radiation density D = hf^2/Sg defines a shield radius rs = (rg/f)(P/h)1/2. ELF frequencies far below 1 mHz are said to penetrate particles, forming photon clouds that cancel graviton exchange. Experiments (System-G) used a toroidal iron lamina energized at 60 Hz (power grid) with 400 A, achieving weight nullification of a 35 kg mass. Lower frequencies (1 Hz) reportedly require far less power (~=632 W) to levitate 100 kg. The author claims that with a spacecraft of mass m and a negative gravitational mass of (m-0.001) kg, a thrust of 10 N yields acceleration a = F/(mg) where mg ~= 0, allowing super-luminal speeds.

Principles

  • Electromagnetic control of gravitational mass
  • Mach's principle integration
  • Photon-graviton shielding
  • ELF field interaction with metallic lamina

Scientific Domains

Physics Gravitation Electromagnetism General Relativity

Materials

  • Annealed iron lamina
  • Aluminum foil
  • Copper coil (dipole antenna)

Mechanisms of Action

  • ELF radiation absorbed by iron/aluminum creates photon cloud
  • Photon cloud blocks graviton exchange, nullifying gravitational mass
  • Reduced gravitational mass leads to negligible inertial resistance

Energy Sources

Electrical power from grid (AC 60 Hz) ELF generator

Applications

  • Spacecraft propulsion
  • Levitation devices
  • Gravity control systems

Claimed Performance

Weight nullification of 35 kg at 60 Hz with 400 A (~=11 kW). Levitation of 100 kg at 60 Hz requires 61 kW; at 1 Hz requires 632 W. Levitation of 50 kg at 5 Hz requires 1.46 kW. Thrust of 10 N produces acceleration sufficient to exceed light speed under the null-mass condition.

Experimental Evidence

The System-G experiment performed on 27 Jan 2000 at Maranhao State University reportedly achieved the above levitation results; curves and tables are shown in the PDF and article.

Replication Status

Only the author's own laboratory reports successful experiments; no independent replication is mentioned.

Limitations

  • Requires very high electrical currents and power
  • Relies on unverified physics (photon-graviton shielding)
  • No peer-reviewed validation
  • Potential conflict with relativity

Red Flags

  • Extraordinary claims (null gravitational mass, super-luminal travel) without peer-reviewed evidence
  • Reliance on unpublished equations and theoretical constructs
  • No independent replication reported

Keywords

gravitational mass ELF radiation photon shield System-G anti-gravity spacecraft propulsion

Related Technologies

Electromagnetic propulsion Gravitic shielding Super-conducting magnetic levitation

📷 Images

0logo.gif
0logo.gif
aequalf.gif
aequalf.gif
cinf.gif
cinf.gif
ds2goo.gif
ds2goo.gif
elfais.gif
elfais.gif
equ104.gif
equ104.gif
equ205.gif
equ205.gif
equ206.gif
equ206.gif
fdafrq.gif
fdafrq.gif
frandeaquino.gif
frandeaquino.gif
ge1.jpg
ge1.jpg
goophi.gif
goophi.gif
image1640.gif
image1640.gif
mg001.gif
mg001.gif
phigm.gif
phigm.gif
sysg104.gif
sysg104.gif
sysg5ghz.gif
sysg5ghz.gif
sysgcr1.gif
sysgcr1.gif
sysgcur.gif
sysgcur.gif
sysgpwr.gif
sysgpwr.gif
sysgpwr2.gif
sysgpwr2.gif
znsag.jpg
znsag.jpg