Left Column is mL of NaOHRight Column is pH level We are interested in when the second derivative is equal to zero. This actually happens a few times with our data set, but there is only one equivalence point. With our data there are a number of consecutive places early on where the second derivative is zero. To figure out why this happens, suppose we have a function whose second derivative is always zero. So we have\[ \frac{d^2y}{dx^2} = 0. \] What is \( \frac{dy}{dx} \) for this function?With that derivative, what kind of function must \( y \) be? Conclusion: If \( f(x) \) is a _________________ function on an interval, then \( f''(x) = \, \_\_\_\_ \) on that interval. The table below shows the relationship between the volume of NaOH (in mL) added and the pH of the solution. This data is typically used to understand the titration process between a strong base (NaOH) and a weak acid. | mL of NaOH | pH ||------------|------|| 0 | 2.22 || 5 | 2.83 || 8 | 3.09 || 10 | 3.23 || 13 | 3.41 || 15 | 3.53 || 18 | 3.71 || 20 | 3.83 || 25 | 4.24 || 27 | 4.51 || 28 | 4.72 || 29 | 5.10 || 30 | 10.66|| 31 | 11.37|| 33 | 11.77|| 35 | 11.96|| 40 | 12.22|At the beginning of the titration process (0 mL of NaOH), the pH is 2.22, indicating an acidic solution. As NaOH is added, the pH gradually increases, showing the neutralization of the acid. A dramatic increase in pH is observed between the addition of 29 mL and 30 mL of NaOH, which is typical at the equivalence point in a titration. Beyond this point, the pH levels off as the solution becomes more basic with continued NaOH addition.

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Description: Left Column is mL of NaOHRight Column is pH level We are interested in when the second derivative is equal to zero. This actually happens a few times with our data set, but there is only one equivalence point. With our data there are a number of cons

d2ydx2=0 When the second derivative is zero, then the first derivative is constant. That is, dydx=c…

Math

Calculus

We are interested in when the second derivative is equal to zero. This actually happens a few times with our data set, but there is only one equivalence point. With our data there are a number of consecutive places early on where the second derivative is zero. To figure out why this happens, suppose we have a function whose second derivative is always zero. So we have dy 0. What is for this function? fip dx dy dr? With that derivative, what kind of function must y be? Conclusion: If f(x) is a function on an interval, then f"(x) = on that interval.

We are interested in when the second derivative is equal to zero. This actually happens a few times with our data set, but there is only one equivalence point. With our data there are a number of consecutive places early on where the second derivative is zero. To figure out why this happens, suppose we have a function whose second derivative is always zero. So we have dy 0. What is for this function? fip dx dy dr? With that derivative, what kind of function must y be? Conclusion: If f(x) is a function on an interval, then f"(x) = on that interval.

Calculus: Early Transcendentals

8th Edition

ISBN:9781285741550

Author:James Stewart

Publisher:James Stewart

Chapter1: Functions And Models

Section: Chapter Questions

Problem 1RCC: (a) What is a function? What are its domain and range? (b) What is the graph of a function? (c) How...

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