Wrong. 'Binary system' is characteristically of you completely undefined but the default assumption is typical compact ~ stellar mass binaries - in principle any combination of WD, NS, or BH. The LIGO and similar wavelength ranges of interest are then on a far smaller scale than interstellar distances, or even typical stellar dimensions. Everything would nicely smooth out to effectively zero net effect over such scales - and that assumes there really could be such TT waves. Vastly rarer SMBH binaries might fit with your assertion, but the Parks team whose 11-year survey came up empty, had a clue or two in choosing pulsar timing as the only sufficiently sensitive asronomical indicator of any such very low frequency GW's: http://www.atnf.csiro.au/research/pulsar/ppta/So, if there were gravity waves in the vicinity of the binary system, then we should be able to see that in the form of SHEER TRANSVERSE DEFORMATIONS OF THE SPACETIME OF NEIGHBORING STARS, right?
See above.But how would we know that, even if we saw a candidate event in that region? Same way that we would know what caused such an event here; you wouldn't.
May I assume that bit is directed at the likes of Saulson and not myself? Regardless, basically that bit is claiming that GR's version of GW's is dead wrong. Do you acknowledge that? Yes or no?. If you do, how about furnishing the mathematical form of a GW that fits your idea of 'relativity', or at least point to the published literature where such is shown in explicit detail. Otherwise you are engaging in sheer assertion. My own reasons for rejecting GR's version of GW's are almost certainly very different to your own. And, as oft stated, I'm not about to divulge what they are, for 'proprietary reasons'. I assume you have no such inhibition about detailing your reasons.How anyone imagines that there will be sheer transverse deformation due to the passage of a GW without a concomitant time dilation effect in the same region reveals someone who doesn't understand the first thing about relativity. Not even wrong.
So you disagree with Saulson's explanation - which is btw standard fare within the GW community. Please be more precise - where exactly does the logic in that article fail? Which equations are wrong and why? No waffle, no hand-wavy assertions; provide a detailed explanation.Detecting gravity waves with an interferometer of any practical size is breaking relativity's law in terms of performing a local experiment which demonstrates motion of the medium through which light waves travel. Anyone who has other ideas about this is the one who needs to justify some very expensive experiments with null results which have already been done and noted and were in fact the motivation for the creation of relativity theory in the first place.
See my first response above.Interferometry is used all the time in astronomy to discern multiple images produced by gravitational lensing. This is so routine, in fact, that by now someone should have noticed if any such lensing activity is moving, the rate at which it is moving, and whether there are any distortions of this kind that are affecting transverse deformations of spacetime of nearby stars. But how could you even tell if it was due to GW or lensing?
Strangely, I have no argument with that banal observation.All of the above discussion assumes only that the medium through which light propagates is the same medium through which GWs propagate, of course.