D The region D above can be describe in two ways. 1. If we visualize the region having "top" and "bottom" boundaries, express each as functions of and provide the interval of x-values that covers the entire region. "top" boundary 92(x) = | "bottom" boundary 91(x) = interval of values that covers the region = 2. If we visualize the region having "right" and "left" boundaries, express each as functions of y and provide the interval of y-values that covers the entire region. "right" boundary f2(y) = | "left" boundary fi(y) =| interval of y values that covers the region =

Find the volume of the region under the surface z = corners (0,0,0), (2,0,0) and (0,5, 0). Round your answer to one decimal place. 5x5 and above the triangle in the xy-plane with

Given y = 4x and y = x² +3, describe the region for Type I and Type II. Type I 8. y + 2 -24 -1 1 2 2.5 X Type II N 1.5- x 1- 0.5 -0.5 -1 1 m y -2> 3 10

Given D = {(x, y) | O≤x≤2, ½ ≤y≤1 } and f(x, y) = xy then evaluate f(x, y)d using the Type II technique. 1.2 1.0 0.8 y 0.6 0.4 0.2 0- -0.2 0 0.5 1 1.5 2 X X This plot is an example of the function over region D. The region identified in your problem will be slightly different. y upper integration limit Integral Value

This way the ratio test was done in this conflicts what I learned which makes it difficult for me to follow. I was taught with the limit as n approaches infinity for (an+1)/(an) = L I need to find the interval of convergence for the series tan-1(x2). (The question has a table of Maclaurin series which I followed as well)   https://www.bartleby.com/solution-answer/chapter-92-problem-7e-advanced-placement-calculus-graphical-numerical-algebraic-sixth-edition-high-school-binding-copyright-2020-6th-edition/9781418300203/2c1feea0-c562-4cd3-82af-bef147eadaf9

Suppose that f(x, y) = y√√r³ +1 on the domain D = {(x, y) | 0 ≤y≤x≤ 1}. D Then the double integral of f(x, y) over D is [ ], f(x, y)dzdy =[ Round your answer to four decimal places.

***Please do not just simply copy and paste the other solution for this problem posted on bartleby as that solution does not have all of the parts completed for this problem. Please answer this I will leave a like on the problem. The data needed to answer this question is given in the following link (file is on view only so if you would like to make a copy to make it easier for yourself feel free to do so) https://docs.google.com/spreadsheets/d/1aV5rsxdNjHnkeTkm5VqHzBXZgW-Ptbs3vqwk0SYiQPo/edit?usp=sharing

The data needed to answer this question is given in the following link (file is on view only so if you would like to make a copy to make it easier for yourself feel free to do so) https://docs.google.com/spreadsheets/d/1aV5rsxdNjHnkeTkm5VqHzBXZgW-Ptbs3vqwk0SYiQPo/edit?usp=sharing

The following relates to Problems 4 and 5. Christchurch, New Zealand experienced a major earthquake on February 22, 2011. It destroyed 100,000 homes. Data were collected on a sample of 300 damaged homes. These data are saved in the file called CIEG315 Homework 4 data.xlsx, which is available on Canvas under Files. A subset of the data is shown in the accompanying table. Two of the variables are qualitative in nature: Wall construction and roof construction. Two of the variables are quantitative: (1) Peak ground acceleration (PGA), a measure of the intensity of ground shaking that the home experienced in the earthquake (in units of acceleration of gravity, g); (2) Damage, which indicates the amount of damage experienced in the earthquake in New Zealand dollars; and (3) Building value, the pre-earthquake value of the home in New Zealand dollars. PGA (g) Damage (NZ$) Building Value (NZ$) Wall Construction Roof Construction Property ID 1 0.645 2 0.101 141,416 2,826 253,000 B 305,000 B T 3…