Many people have posted here who appear not to understand the science behind Denon’s cabling and its superior hyperphasal multibit inductive ultraconductance technologies. They assume that there is no way to improve upon the transmissive properties of copper cabling (mainly because they don’t understand the properties of alloying megacopper), or to create a better-than-normal digital signal (BTND coding). I would give this cable eleventy million stars if I could, and once you understand, so will you.
In order to clear things up for the scitards, let me quote to you from the original Denon research literature by Quick & Salwen:
“Work has been proceeding in order to bring perfection to the crudely conceived idea of a new cable technology that will not only supply inverse reactive current for use in unilateral phase detractors, but will also be capable of automatically synchronizing cardinal grammeters. Despite the claims of some critics, such a cable is possible. We call it the Turbo-encable-ator.
The cabling system has a base-plate connector of prefabulated amulite, surmounted by a malleable logarithmic casing in such a way that the two spurving bearings are in a direct line with the pentametric fan. The main cable winding is of the normal lotus-o-delta type placed in panendermic semi-boloid slots in the stator, every seventh conductor being connected by a nonreversible tremble pipe to the differential girdlespring on the ‘up’ end of the grammeters.
Forty-one manestically spaced grouting brushes are arranged to feed into the pulse phasing slipstream a mixture of high S-value phenylhydrobenzamine and 5% reminative tetryliodohexamine. Both of these liquids have specific pericosities given by P = 2.5C.n^6-7 where n is the diathetical evolute of retrograde temperature phase disposition and C is Cholmondeley’s annular grillage coefficient. Initially, n was measured with the aid of a metapolar refractive pilfrometer, but up to the present date nothing has been found to equal the transcendental hopper dadoscope. It is clear from this that intrapolarphasal preteslence is now empraxified, correlating with an increase in conductive hyperplatitization.
Electrical engineers will appreciate the difficulty of nubbing together a regurgitative purwell and a supramitive wennelsprock. Indeed, this proved to be a stumbling block to further development until, in 1992, it was found that the use of anhydrous nangling pins enabled a kryptonastic boiling shim to the tankered. Spooling of the reframublant diaphanator became possible, allowing for cromulence.
Our early attempts to construct a sufficiently robust spiral decommutator failed, potentially dooming the project, largely because of a lack of appreciation of the large quasi-piestic stresses in the gremlin strands; the latter were specially designed to hold the roffit windings to the spamshaft. When, however, it was discovered that wending could be prevented by a simple addition to the living sockets, almost perfect running was secured. With this problem overcome, we were able to initiate googolpolar preferatory unbinding.
The operating point is maintained as near as possible to the h.f. rem peak by constantly fromaging the bitumogenous spandrels. This is a distinct advance on the standard nivel-sheave in that no dramcock gel is required after the phase detractors have been remissed. Such advances allow for non-holoxified, doubly-flexocorrigent operation.
Undoubtedly, the Turbo-encable-ator has now reached a very high level of technical development. It has been successfully used for generating nofer trunnions. In addition, whenever a barescent skor signal is required, the cable connector may be employed in conjunction with a drawn reciprocating dingle arm to reduce sinusoidal depleneration.”