This chapter derives the properties of light from the properties of processing, including its ability to be both a wave and a particle, to detect objects it doesn't  touch, to  choose a route after it arrives, to take all paths to a destination and to spin in any direction both ways at once . In this model, a photon is a processing wave front instantiated from an entity program class, and quantum collapse is when one class stops to merge with another, which restarts its processing . This processing approach to physics also gives insights into  entanglement, superposition, counterfactuals, the holographic principle and the measurement problem. Its conceptual cost is that physical reality becomes a processing output .
This chapter derives the properties of light from the properties of processing, including its ability to be both a wave and a particle, to respond to objects it doesn't physically touch, to take all paths to a destination, to choose a route after it arrives, and to spin both ways at once as it moves. Here a photon is an entity program spreading as a processing wave of instances. It becomes a "particle" if any part of it overloads the grid network that runs it, causing the photon program to reboot and restart at a new node. The "collapse of the wave function" is how quantum processing creates what we call a physical photon. This informational approach gives insights into issues like the law of least action, entanglement, superposition, counterfactuals, the holographic principle and the measurement problem. The conceptual cost is that physical reality is a quantum processing output, i.e. virtual .
R
detect
respond to
A
physically
A
take all paths to a destination, to
D
to take all paths to a destination
D
in any direction
R
. In this model,
as it moves. Here
D
a processing wave front instantiated from
R
class, and quantum collapse is when one class stops to merge with another, which restarts its processing . This processing approach to physics also
spreading as a processing wave of instances. It becomes a "particle" if any part of it overloads the grid network that runs it, causing the photon program to reboot and restart at a new node. The "collapse of the wave function" is how quantum processing creates what we call a physical photon. This informational approach
A
issues like the law of least action,
R
Its
The
R
becomes a processing output
is a quantum processing output, i.e. virtual