But this is a wholly conventional phenomenon and there is no reason to suppose that what is sufficient to activate a certain body of law automatically activates a different set of moral principles as well.
Since the two natures of every conventional phenomenon provide the ontological and epistemological foundation for each of the truths, the division of truth into two is entirely appropriate.
In this scheme, conditioning/adapting stresses and post-exposure conditioning responses are allied with the conventional phenomenon of hormesis, with the latter not evincing conditioning or adapting dose responses.
Bohr reasoned that any new theory had to do more than describe atomic phenomena correctly; it must be applicable to conventional phenomena, too, in such a way that it would reproduce the old physics: this is the correspondence principle.
That is, conventional phenomena are denied existence ultimately, not conventionally.
The sense of ultimate truth (paramārthasatya) grants primacy to the exalted transcendent cognitive process of the noble beings, which supersedes the ontological status of conventional phenomena.
It is therefore not possible, in Sakya's view, to confine the definition of ultimate truth to the framework of conventional phenomena.
(Gorampa, 1969c: 326a) Like Nāgārjuna's hypothetical, not real, intrinsic reality, Sakya claims that ultimate truth is ontologically unconditioned, and hence it is not a dependently arisen phenomenon; it is distinct from conventional phenomena in every sense of the word; it is independent of conceptual-linguistic conventions; it is a timeless and unchanging phenomenon.
First, just as an illusion, a mirror image, etc., are real in an ordinary sense, despite the fact that they are deceptive and unreal, so, too, conventional phenomena in the Prāsaṅgika Madhyamaka sense are conventionally real, and can even be said to constitute truths, despite being recognized by the Mādhyamikas themselves as unreal and deceptive.
A number of non-conventional phenomena can arise from phononic metamaterials such as acoustic cloaking, 3– 5 negative acoustic refraction, 6– 8 and negative modulus.
Here, we report a porous architecture containing nano- to micrometer size irregularly shaped and randomly oriented pores, scattering a wide spectrum of phonons without employing the conventional rattling phenomenon.
