Frameshift generator
View Patent ↗An apparatus is provided which utilizes a plurality of heavy spinning masses in a coplanar and coaxial orientation which when utilized together magnify and reinforce frame dragging effect and create a frameshift.
1 . A frameshift generator, comprising:
a subject mass, a center axis, a plurality of rotational masses, a housing, a prime mover, and at least one secondary mover,
wherein subject mass is disposed at the center axis, wherein the plurality of rotational masses include at least a first rotational mass and a second rotational mass, wherein the first rotational mass is uniformly distributed in a ring around and proximate to the subject mass,
wherein the first rotational mass is coaxial with the center axis,
wherein the second rotational mass is uniformly distributed in a ring around and proximate to the first rotational mass
wherein the second rotational mass is coplanar with both the first rotational mass and the subject mass, wherein the second rotational mass is coaxial with the center axis,
wherein the subject mass and the plurality of rotational masses are disposed within the housing,
wherein the subject mass is operatively connected to the prime mover to spin around the center axis in a primary rotational direction at a first rate,
and wherein the plurality of rotational masses are operatively connected to at least one secondary mover to spin around the center axis in the primary rotational direction at a second rate,
whereby upon activation of the primary mover causing the subject mass to spin up to a first rate, the subject mass produces a first induced frame drag upon at least the first rotational mass, and whereby upon activation of the at least one secondary mover causing at least one of the plurality of rotational masses to spin, the at least one plurality of rotational masses produces a first additive frameshift upon the subject mass.
2 . A frameshift generator, comprising:
a subject mass, and a plurality of rotational masses,
wherein the subject mass has a center axis and a first reference frame,
wherein the plurality of rotational masses includes at least a first rotational mass having a second reference frame and a second rotational mass having a third reference frame,
wherein the first rotational mass is distributed in a ring around and proximate to the subject mass, and is coaxial with the center axis,
wherein the second rotational mass is distributed in a ring around and proximate to the first rotational mass, and wherein the second rotational mass is coplanar with both the first rotational mass and the subject mass, wherein the second rotational mass is coaxial with the center axis,
and wherein the subject mass is adapted for rotation in a first rotational direction around the central axis up to a first rate, wherein the first rotational mass is adapted for rotation in the first rotational direction around the central axis up to a second rate, and
wherein the second rotational mass is adapted for rotation in the first rotational direction around the central axis at up to a third rate.
3 . A frameshift generator according to claim 2 , further comprising a housing, a prime mover, and at least one secondary mover,
wherein the subject mass and the plurality of rotational masses are disposed within the housing,
wherein the subject mass is operatively connected to the prime mover to spin around the center axis in the first rotational direction up to a first rate, and wherein at least one of the plurality of rotational masses are operatively connected to at least one secondary mover to spin around the center axis in the primary rotational direction up to a second rate, whereby upon activation of the primary mover, the primary mover induces the subject mass to spin up to a first rate, whereby the subject mass produces a first induced frame drag upon at least the first rotational mass, and whereby upon activation of the at least one secondary mover, the at least one secondary mover induces the first rotational mass to spin up to a second rate, whereby the first rotational mass induces a first additive frameshift upon the reference frame of subject mass.
4 . A frameshift generator according to claim 1 , further comprising a first spacing wherein the first spacing is disposed between the subject mass and first rotational mass and around a circumference of the subject mass, and wherein the spacing comprises at least one of the group consisting of a vacuum and a cryomaterial.
5 . A frameshift generator according to claim 1 , wherein said subject mass comprises a uniformly distributed material, selected from the group of consisting of homogenous titanium, and homogenous niobium.
6 . A frameshift generator according to claim 1 , wherein said plurality of rotational masses comprise uniformly distributed material, selected from the group of materials consisting of homogenous titanium, and homogenous niobium.
7 . A frameshift generator according to claim 1 , further comprising a third rotational mass wherein the third rotational mass is distributed in a ring around and proximate to the second rotational mass, and is coaxial with the center axis, and wherein is the third rotational mass adapted for rotation in a first rotational direction around the central axis at a third rate.
8 . A frameshift generator according to claim 1 , further comprising at least one additional rotational mass wherein each one of said additional rotational mass is distributed in a ring around and proximate to at least one of the plurality of rotational masses, and is coaxial with the center axis, and wherein each one of said additional rotational masses is adapted for rotation in a first rotational direction around the central axis at a third rate.
9 . A frameshift generator according to claim 1 , wherein at least one of said rotational masses further comprises a superconductive coating.
10 . A frameshift generator according to claim 1 , wherein at least one of said rotational masses further comprises a superconductive ring.
11 . A method of generating a frameshift, including the steps of
providing a subject mass and a plurality of rotational masses, wherein the subject mass and at least one of the rotational masses are coaxial and coplanar,
inducing a subject mass to rotate on a center axis, in a first direction,
accelerating the subject mass to up to a first operational angular velocity,
inducing a first frame drag upon a first rotational mass whereby a second reference frame is shifted,
inducing a first rotational mass to rotate on a center axis in a first direction,
accelerating the first rotational mass to up to a second operational angular velocity,
inducing a second rotational mass to rotate on an axis in a first direction, wherein the second rotational mass is uniformly distributed in a ring around and proximate to the first rotational mass
accelerating the second rotational mass up to a third operational angular velocity,
thereby inducing a first additive frameshift to a first reference frame, and thereby providing a first frame transformation.
12 . A method according to claim 11 , further comprising the steps of accelerating the subject mass to a further operational angular velocity.
13 . A method according to claim 11 , further comprising the steps of accelerating the first rotational mass to a further operational angular velocity.
14 . A method according to claim 11 , further comprising the steps of accelerating the second rotational mass to a further operational angular velocity.
15 . A method according to claim 11 , further comprising the steps of providing a superconductive coating on at least one of said plurality of rotational masses, and accelerating at least of one of said plurality of rotational masses to an operational angular velocity.