Since one way flow of radiation violates well-known laws of physics, which have been observed and measured countless times your anti-science stance on physical law is not only illogical, it is also pathological.
Yeah, just thinking about how one would apply a strictly one-way thermal radiation flow rule across all conceivable situations, and it quickly devolves into absurdity. A vibrating particle of matter will emit electromagnetic waves who’s trajectories will depend of the directions the vibrations occur in. So let’s consider some black body object just sitting in a room, and at thermal equilibrium with the room. Net heat transfer is zero, but does that mean the black body is not emitting any thermal radiation outwardly at all? I believe the known physics involved predict that on aggregate, the vibrating particles would have to emit electromagnetic waves outwardly from the entire surface of the object.
Is SSDD ready to present some hitherto unknown Mystery Law X whereby the heat energy from the surrounding room is able to strike the black body object in just the right way so that it’s particles emit all their radiation inward, while the black body is somehow able realign the vibrations of the surrounding particles in a similar fashion?
Let’s go further and consider two objects in space: Earth and Pluto. Earth is warmer than Pluto, so would Mystery Law X allow for Earth’s radiation to strike Pluto’s particles in just such a way as that Pluto’s electromagnetic radiation waves are never emitted at Earth? If I was to open a container of (very cold) alpha phase solid oxygen on Earth, would Mystery Law X now realign the vibrations of Pluto particles? Seeing as such a rule would be completely unnecessary, Occam’s razor informs me that it does not exist.
But then if Mystery Law X doesn’t exist, how can we explain the thermal radiation behavior of a single cool object in a warm room? It would still have vibrating particles, and no Mystery Law X to force all its thermal radiation inward. Electromagnetic waves emitted from the surface of the cool object would propagate outwardly at the speed of light. If the room had solid walls, those ‘cool’ radiation waves would basically have to be absorbed by at least the warm walls, especially if the walls were made out of thick, electromagnetic radiation absorbing materials.
