This guy Morgan who puts down Lazar states he knows what gravity is (nobody absolutely knows what gravity is, its all theory). " There are currently two main theories about gravity. The "wave" theory which states that gravity is a wave, and the other is a theory which includes "gravitons", which are alleged sub-atomic particles which perform as gravity, which by the way, is total nonsense.
These statements by Lazar are "total nonsense". There is only ONE currently accepted theory of gravity: General Relativity. In GR, gravity is described as a distortion of spacetime, not as a particle or a wave. There are phenomena known as "gravitational waves" which exist in GR, but this does not seem to be what Lazar is talking about. Lazar says that gravity IS a wave. It isn’t a wave. The "gravitons" which he speaks of are a feature of QUANTUM gravitational theories, and I think they require a little explanation.////"
Graviton
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This article is about the hypothetical particle. For other uses, see Graviton (disambiguation).
Graviton
Composition: Elementary particle
Interaction: Gravity
Status: Hypothetical
Mass: 0
Mean lifetime: Stable
Electric charge: 0
Spin: 2
In physics, the graviton is a hypothetical elementary particle that mediates the force of gravity in the framework of quantum field theory. If it exists, the graviton must be massless (because the gravitational force has unlimited range) and must have a spin of 2 (because gravity is a second-rank tensor field).
Gravitons are postulated because of the great success of the quantum field theory (in particular, the Standard Model) at modeling the behavior of all other forces of nature with similar particles: electromagnetism with the photon, the strong interaction with the gluons, and the weak interaction with the W and Z bosons. In this framework, the gravitational interaction is mediated by gravitons, instead of being described in terms of curved spacetime like in general relativity. In the classical limit, both approaches give identical results, including Newton's law of gravitation.[1][2][3]
However, attempts to extend the Standard Model with gravitons run into serious theoretical difficulties at high energies (processes with energies close to or above the Planck scale) because of infinities arising due to quantum effects (in technical terms, gravitation is nonrenormalizable.) Some proposed theories of quantum gravity (in particular, string theory) address this issue. In string theory, gravitons (as well as the other particles) are states of strings rather than point particles, and then the infinities do not appear, while the low-energy behavior can still be approximated by a quantum field theory of point particles. In that case, the description in terms of gravitons serves as a low-energy effective theory.
Contents
[hide]
1 Gravitons and models of quantum gravity
2 Gravitons and experiments
3 Is gravity like the other forces?
4 See also
5 References
[edit] Gravitons and models of quantum gravity
When describing graviton interactions, the classical theory (i.e. the tree diagrams) and semiclassical corrections (one-loop diagrams) behave normally, but Feynman diagrams with two (or more) loops lead to ultraviolet divergences; that is, infinite results that cannot be removed because the quantized general relativity is not renormalizable, unlike quantum electrodynamics. In popular terms, the discreteness of quantum theory is not compatible with the smoothness of Einstein's general relativity. These problems, together with some conceptual puzzles, led many physicists to believe that a theory more complete than just general relativity must regulate the behavior near the Planck scale. Superstring theory finally emerged as the most promising solution; it is the only known theory with finite corrections to graviton scattering at all orders.
String theory predicts the existence of gravitons and their well-defined interactions which represents one of its most important triumphs. A graviton in perturbative string theory is a closed string in a very particular low-energy vibrational state. The scattering of gravitons in string theory can also be computed from the correlation functions in conformal field theory, as dictated by the AdS/CFT correspondence, or from Matrix theory.
An interesting feature of gravitons in string theory is that, as closed strings without endpoints, they would not be bound to branes and could move freely between them. If we live on a brane (as hypothesized by some theorists) this "leakage" of gravitons from the brane into higher-dimensional space could explain why gravity is such a weak force, and gravitons from other branes adjacent to our own could provide a potential explanation for dark matter. See brane cosmology for more details.
Some proposed quantum theories of gravity do not predict a graviton.
[edit] Gravitons and experiments
Detecting a graviton, if it exists, will prove rather problematic. Because the gravitational force is so incredibly weak, it is only recently that experiments to verify directly the existence of gravitational waves could even have been conceived. Gravitational waves may be viewed as coherent states of many gravitons, much like the electromagnetic waves are coherent states of photons; finding gravitons will thus be comparable to finding individual photons. Meanwhile, projects that should find the gravitational waves, such as LIGO and VIRGO, have only been running for a few years (as of 2007).
[edit] Is gravity like the other forces?
Some question the analogy which motivates the introduction of the graviton. Unlike the other forces, gravitation plays a special role in general relativity in defining the spacetime in which events take place. Because it does not depend on a particular spacetime background, general relativity is said to be background independent. In contrast, the Standard Model is not background independent. In other words, general relativity and the standard model are incompatible. A theory of quantum gravity is needed in order to reconcile these differences. Whether this theory should itself be background independent, or whether the background independence of general relativity arises as an emergent property is an open question. The answer to this question will determine whether gravity plays a "special role" in this underlying theory similar to its role in general relativity
Here is Lazars theory:
http://www.grantchronicles.com/lazar.htm //// Here is a good link to study:
http://amasci.com/freenrg/tors/ QUOTE(jaylemurph @ Jun 24 2007, 07:26 PM)

Perhaps calling him crazy is a bit unfair.
Bob "Lazer" discredits himself with his ignorance of actual physics and lame attempts at having an Ivy League degree.
These far outweigh his claim he was a government physicist.
No need to involve conspiracies or evil government tactics.
--Jaylemurph