A Rational Cosmology: The Calculus as a Model for Continuous Motion

Essay XXXIII

This is Essay XXXIII of Mr. Stolyarov's series, "A Rational Cosmology," which seeks to present objective, absolute, rationally grounded views of terms such as universe, matter, volume, space, time, motion, sound, light, forces, fields, and even the higher-order concepts of life, consciousness, and volition. See the index of all the essays in "A Rational Cosmology" here.


The calculus is a mathematical system that enables one to distinguish between not only different magnitudes of continuous motion (i.e., some objects moving faster than others) but also the temporal trends that these magnitudes follow (i.e., acceleration and deceleration).

When one knows the equation modeling an entity's position as a function of time, differential calculus permits one to find a model for its velocity (first derivative) and acceleration (second derivative) as a function of time. If one knows any of the latter two, plus values for initial velocity and/or position of the entity in motion, integral calculus can assist one in creating an accurate model for the entity's position at any time at which it is moving.

The mathematical structures entailed in the calculus are well known and can be found in any comprehensive textbook on the subject. What shall concern this treatise in regard to the calculus is similar to what has concerned it in regard to Euclidean geometry.

Euclidean geometry, though in itself merely a model not equivalent to the entities it describes, is nevertheless capable of describing all entities' spatial qualities perfectly. Thus, on the matter of the calculus, the subject of our investigation is the manner in which this mathematical model is capable of describing with perfect accuracy the motion of entities while remaining a mere model not equivalent to said motion.

The derivative of a position equation, as a function of time, expresses an object's so-called "instantaneous velocity," or velocity at a given point in spatiotemporal coordinates.

Related information
The derivative of a position equation, as a function of time, expresses an object's so-called "instantaneous velocity," or velocity at a given point in spatiotemporal coordinates.
 
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it seems interesting... I'd say Newtonian Calculus, like democracy, is not perfect, but its at least 10 times better then anything else. No, you bring up a good point! I would however ask you... by the limit definition of the derivative; Calculus acknowledges that even instantaneous velocity is a leap of faith... I mean 1/infinite is not really 0... but we can bring it pretty damn close... As for prodding further, you enter into the league of einstein, and perhaps may stumble upon some great insight. for practical engineers, the current state of affairs should suffice.

Posted on 01/22/2009 at 11:01:05 AM

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