Table of contents
- 0. Functions(0)
- Introduction to Functions(0)
- Piecewise Functions(0)
- Properties of Functions(0)
- Common Functions(0)
- Transformations(0)
- Combining Functions(0)
- Exponent rules(0)
- Exponential Functions(0)
- Logarithmic Functions(0)
- Properties of Logarithms(0)
- Exponential & Logarithmic Equations(0)
- Introduction to Trigonometric Functions(0)
- Graphs of Trigonometric Functions(0)
- Trigonometric Identities(0)
- Inverse Trigonometric Functions(0)
- 1. Limits and Continuity(0)
- 2. Intro to Derivatives(0)
- 3. Techniques of Differentiation(0)
- 4. Applications of Derivatives(0)
- 5. Graphical Applications of Derivatives(0)
- 6. Derivatives of Inverse, Exponential, & Logarithmic Functions(0)
- 7. Antiderivatives & Indefinite Integrals(0)
- 8. Definite Integrals(0)
- 9. Graphical Applications of Integrals(0)
- 10. Physics Applications of Integrals (0)
- 11. Integrals of Inverse, Exponential, & Logarithmic Functions(0)
- 12. Techniques of Integration(0)
- 13. Intro to Differential Equations(0)
- 14. Sequences & Series(0)
- 15. Power Series(0)
- 16. Parametric Equations & Polar Coordinates(0)
8. Definite Integrals
Riemann Sums
8. Definite Integrals
Riemann Sums: Videos & Practice Problems
70 of 0
Problem 70Multiple Choice
A particle moves along a straight line with velocity, in , given by , for in . Divide the interval into equal subintervals: , , , and . On each subinterval, assume that the particle’s velocity remains constant at the value of evaluated at the midpoint of the subinterval. Using these constant‐velocity subintervals, approximate the displacement of the particle on .
![Graph showing velocity v=2t²+4 with Riemann sums represented by orange rectangles over the interval [1,5].](https://static.studychannel.pearsonprd.tech/courses/calculus/thumbnails/7b472c7d-2319-4cde-b503-35209b2d4405)
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