
Study with the several resources on Docsity
Earn points by helping other students or get them with a premium plan
Prepare for your exams
Study with the several resources on Docsity
Earn points to download
Earn points by helping other students or get them with a premium plan
Material Type: Exam; Class: Multivariable Calculus; Subject: Mathematics; University: University of Connecticut; Term: Spring 2010;
Typology: Exams
1 / 1
This page cannot be seen from the preview
Don't miss anything!

Room change: The midterm will take place in MSB 117.
Notecard: You will be allowed to bring one notecard (3x5) of your own, hand-written notes to the exam.
Sect What you should be able to do 14.3. compute partial derivative (15-42, 61-68); estimate partial derivatives from tables (1-4); estimate partial derivatives from graph or level set of function (5-8, 10) 14.4. find the equation of a tangent plane of a surface at a point (1-6); find linearization at a point and use it (11-19, 21); applications (31-38) 14.5. use the chain rule to compute (partial) derivatives of compositions of functions (1-15); use chain rule to compute implicit derivatives (27-34); application to real world examples (35-43) 14.6. find gradient vector and directional derivative in direction of a vector (7-19); find maximal value of directional derivative at a point (21-26); real world applications (30-35); estimate directional derivative at a point from level set (36, 38) 14.7. find local maxima and minima of functions (1-18); find absolute minima and maxima of functions on a set (29-36); set up functions from word problems and find maxima/minima of such functions (31-51); 15.1. estimate double integrals (in particular volumes) using Riemann sums (3,4); estimate aver- age value (9-10) 15.2 compute double integral over rectangle using Fubini’s theorem (1-22); compute volumes of solids (23-31); compute average value (35-36) 15.3 compute double intgrals over more general regions (1-18); find volumes of solids using double integrals (19-28); simplify integrals by changing order of integration (39-50) 15.4 evaluate double integral using polar coordinates (7-14, 29-32); determine areas of regions and volumes of solids by integration using polar coordinates (15-27, 33-34); decide whether to use polar coordinates or usual coordinates (1-4) 15.6 evaluate triple integrals (3-18); find volume of solid (19-22); sketch shape of solid given a triple integral (27-28) 15.7 convert cylindrical coordinates to rectangular coordinates and vice versa (1-4); describe regions in cylindrical coordinates (1-13); use cylindrical coordinates to compute volumes (15-16); use cylindrical coordinates to compute triple integrals (17-23a, 27-28) 15.8 convert spherical coordinates to rectangular coordinates and vice versa (1-4); describe sur- faces and solids using spherical coordinates (5-16); compute triple integrals using spherical coordinates (17-30, 35, 36, 39,40) 15.9 compute the Jacobian of a transformation (1–6); express images of regions of transformations (7–10); use the change of variables formula to evaluate an integral (11-16). 16.1 sketch vector fields (1-10), match vector fields with their plots (11-18), find gradient vector fields (21-26). 16.2 compute line integrals, with respsect to ds, dx and dy (1-16); explain and compute line integrals of vector fields (17-22, 29a, 30a); applications: work (39-42) 16.3 decide whether a vector is conservative (3-10), use fundamental theorem (1, 2, 12-20)