1.1.1 Use scipy.integrate.romberg to evaluate the triple integral ∫ 1 x=0 ∫ √ 1−x 2 y=0 ∫ √ 1−x 2−y 2 z=0 dz dy dx 1 + x 2 + y 2 + z 2 Try to obtain results for a range of precision eg. tol=1e-3, 1e-4, ... See how small you can make the tolerance and still obtain a result in under a minute or so. (It may be helpful to adjust divmax.) Determine the number of calls N to the integrand 1 1 + x 2 + y 2 + z 2 required for each value of tol. Plot the graph of N versus tol and discuss the result. 1.1.2 A transformation from Cartesian to spherical coordinates changes the integral into the following form ∫ π/2 θ=0 ∫ π/2 ϕ=0 ∫ 1 ρ=0 ρ 2 sin ϕ dρ dϕ dθ 1 + ρ 2 Apply the same methods as in the previous section to evaluate the triple integral in spherical coordinates. Compare and discuss your results. Use a Jupyter notebook with an .ipynb extension to write up this assignment and submit it via D2L. The name and UCID of each co-author must be included near the beginning. Each notebook should have an introduction and conclusion/summary/discussion section. Each graph must have a title, axis labels, and any other features required to make it easier to understand eg. a legend. Use graphs or tables instead of printing large blocks (ie. pages) of numbers. Each non-trivial function should have a docstring. Avoid duplication of code. Use functions and loops instead of cutting and pasting the same lines in multiple places. Describe what you did and explain why you did it. When you are writing your report, think back to what you wish you had known when you started.