The purpose of this post is to reiterate the thesis of this essay.
Present Operation:
At present the physics community values real world experimental data and a mathematical explanation. It abhors mechanical models used to relate experimental data to the mathematics. This author believes that this breeds incomplete understanding.
Desired Operation:
Understanding can be improved by using experimental data, mechanical models, and mathematical descriptions.
In this post, three scenarios are presented to attempt to bring this idea home.
The first is the rose garden scenario from the essay and a post from basudeba. As pointed out, the truck drivers could have delivered the +400 roses then, to deliver the -400 roses, the +400 roses would be carted away. This is a very accurate assessment. However, this assessment is made due to the fact the truckers and gardener has a model from which to work with. That is, they can hold roses in their hand. That is, they have real world data, a model from which to work, and a mathematical understanding. The gardener did not process the model in his thought process. He thus thought there were some mysterious roses. The truck drivers understood the model and sold the gardener his mysterious roses.
This is to mirror the way special relativity is treated. There, people have proposed tachyons. The "mathematics" proposes that tachyons are particles moving backward in time at a speed faster than the speed of light. This author proposes that this scenario is generated because the physics community abhors the idea there is a model that explains special relativity. The essay suggested (in the physics community this is considered a sin) a mechanical model that represents how special relativity works. The point is that once a model has been selected, many ramifications of the concept of special relativity can be drawn. Understandably, those ramifications can come under fire of skepticism and challenge. This is as it should be. The point is that without a model, further discussion does not exist.
As a third attempt to explain the prime thesis of the essay, consider quantum wave collapse. Presently a quantum particle is considered a probability wave that upon observation collapses to occupy a specific position and time in space. This author believes this concept is due to no model or a false model. At present the physics community clings to the idea that particles are little hard balls that can appear randomly in locations in space adhering to quantum mathematics descriptions. Consider a different model. Perhaps particles are like oil drops that undulate as they move through space. Maybe we should consider a particle as a loop of string that undulates as it moves through space. The concept here is that the center of density of the particle is shifting up, down, left, right, forward, and backward.
Now, the process of observation is the process of measuring the density of the particle at all points within the particle and finding the center of the density. The physicists of today will consider that is where the particle is at. As the physicists consider all these things hard little balls, they will declare that is where the ball is at, at a specific space and time. From this the concept is that quantum particles can move backward in time and experience Heisenberg Uncertainty.
The point is that they are making a false assumption. They claim that the little ball can be mysteriously anywhere and mysteriously finds its location when observed. In reality, during observation, the averages of all parts of the particle are averaged to a specific point in space and time. The oil drop or string has no idea it has been observed, experiences no change in behavior, and just continues undulating along.
One might ask, "OK, what do you mean we average the parts of the thing." Well, what happens when a beam is observed in a cloud chamber or we see splats of light on a piece of paper caused by some flying thing? We look at the center of the trail or locate the center of the splat and declare that is the things position in time and space. Thus we get the average of a position in time and space.
Now one might refute the concepts illustrated here. The point is that differing models along with real measurements and descriptive mathematics will yield differing interpretations. Some will work together better than others. We then have a better chance of understanding the world around us.