dE_logics
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Within specified limits, the area under the curve of an equation and the submission of all values on that curve will be different right?...just confirming.
The discussion revolves around the concept of the area under a curve in relation to the summation of values of a function at infinitely small intervals. Participants explore the differences and relationships between these concepts, particularly in the context of integration and Riemann sums.
Participants express differing views on the relationship between the area under the curve and the summation of function values. There is no consensus on whether these concepts can be equated or how they should be interpreted in the context of integration.
Some participants mention the need for clearer definitions and examples to facilitate understanding, particularly regarding the terms used in the discussion. There are unresolved mathematical steps related to the summation and integration processes.
dE_logics said:So this will be 5+5.1+5.2+5.3......10.5+10.6+10.7+10.8+10.9+11
This won't give an accurate result...the intervals at which the addition should occur should be infinity small to give 100% accuracy.
No, it wouldn't. That is the sum of x-values, not f(x) and it is done with a "step" of 0.1. You had said nothing about a particular step interval before.dE_logics said:aaa...thanks for notifying me about that.
Take a function y = x (simplest possible)
Suppose I want summation of f(x) (or y) from limits 5 - 11 on x.
So this will be 5+5.1+5.2+5.3......10.5+10.6+10.7+10.8+10.9+11
The Riemann sum, of f(x) with a step of 0.1, between 5 and 11 would be (f(5)+ f(5.1)+ ...+ f(10.9))(0.1). Is that what you are asking about?This won't give an accurate result...the intervals at which the addition should occur should be infinity small to give 100% accuracy.
So what I mean to say is when we integrate a function, this summation is not the result right? The summation will be the result in cause of line integral right?
