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|
Date |
Exams or
Quizzes |
Reading
Assignments From Calculus Text |
Assignments Due
(Tentative –
Check for Updates) |
|
Mon. 08/20 |
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|
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Wed. |
|
Section
9.1: Overview Know definition and
notations for an infinite sequence, limit of a sequence, and determining
convergence or divergence of a sequence.
How to define a sequence explicitly and implicitly (recursively) Know concepts infinite series, partial
sums, converge of an infinite series as limit of partial sums. |
In
class Maple lab on sequences (completed in class) |
|
Fri. |
|
Section
9.2: Sequences Using rules for
limits of functions at infinity to determine limits of sequences. Terms:
Nonincreasing, nondecreasing,
monotonic, bounded.
Geometric sequence. Squeeze
Theorem and Bounded Monotonic Convergence Theorem. Formal definition of Limit of a Sequence. |
Set
1 (9.1) |
|
Mon. |
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Wed. |
|
Section
9.3: Infinite Series. Infinite sum, infinite series. Important Geometric sum and Geometric
series. Telescoping series. |
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|
Fri. |
|
Set
2 (9.2) |
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Mon. |
|
Labor
Day -- No Class |
|
|
Wed. |
|
Section
9.4: The Divergence
and Integral Tests. Properties of
Convergent Series (Theorem 9.8) The Harmonic Series. Properties of convergent
series. N’th Term Divergence Test. The Integral Test. P-Series. Estimating Series with positive terms via Sn --
remainder estimate |
|
|
Fri. |
Set
3 (9.3) |
||
|
Mon. |
Quiz |
Quiz Topics: Multiple choice. What does it mean for an infinite series
to converge, diverge. How to show a geometric series converges, diverges -- what
does it converge to. The n’th term test for divergence. The Integral Test. What is a p-series. When does
a p-series converge, diverge. Section 9.5: The Ratio, Root, and Comparison Tests. When
and how to use each of these tests to show convergence of a series. |
|
|
Wed. |
|
Set
4 (9.4) |
|
|
Fri. |
Test 1 |
|
Set
5 ( 9.5) |
|
Mon. |
|
Section 9.6: Alternating Series. What is an alternating series? The Alternating Series Test. Alternating Harmonic Series. The Remainder in Alternating Series Theorem
– use to approximate error in estimation sum of series with partial sum. |
|
|
Wed. |
|
|
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Fri. |
|
Section 10.1 Approximating Functions with
Polynomials. Defining and computing
Taylor polynomials. Using to
approximate a function. Taylor’s
Theorem on Remainders. Obtaining an upper bound on the remainder (Theorem
10.2) |
Set
6 (9.6) |
|
Mon. |
|
Section 10.2 Properties of Power
Series. What is a power series, terms coefficients,
center, radius and interval of convergence. Combining power series. Differentiating and Integrating Power
Series |
|
|
Wed. |
|
|
Set
7 (Section 10.1) |
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Fri. |
|
Set
8 (Section 10.2) |
|
|
Mon. |
|
Section 10.3 Taylor Series. Maclaurin
series. Find a Taylor series for a
function and its interval of convergence. Use techniques for power series to
find Taylor series. Binomial series. |
|
|
Wed. |
|
Section 10.4 Working with Taylor
series. |
|
|
Fri. |
Section 11.1 Parametric
Equations. Graphing curves
represented by parametric equations.
Converting between parametric and rectangular. Derivatives and tangent lines using
parametric form. |
Set
9 (Section 10.3) |
|
|
Mon. |
|
Set
10 (Section 10.4) |
|
|
Wed. |
Test
2 |
|
|
|
Fri |
|
MIDTERM
BREAK - NO CLASS |
|
|
Mon. |
|
|
|
|
Wed. |
|
|
Set
11(Section 11.1) |
|
Fri. |
|
Section
11.2 Polar Coordinates. Converting between polar and rectangular coordinates. Representing curves in polar coordinates,
graphing polar curves |
|
|
Mon. |
|
|
|
|
Wed. |
|
Section
11.3 Calculus
of Polar coordinates. Computing tangent lines to polar curves. Finding points of intersection of polar
curves. Finding areas bounded by polar
curves. |
Set 12 (Section 11.2) |
|
Fri. |
|
|
|
|
Mon. |
|
Section
11.4 Conic Sections: Parabolas, Ellipses and Hyperbolas in
rectangular and polar coordinates Student
Presentations (Group 1:
Parabolas: Joe and Craig, Group
2: Ellipses: Taylor and Hannah, Group 3: Hyperbolas 3) Aces and Lauren) |
|
|
Wed. |
|
Set
13 (Section 11.3) |
|
|
Fri. |
|
Set
14 (Section 11.4) Part
I – through 46 |
|
|
Mon. |
|
Section
12.1 Vectors
in the Plane. Representations,
interpretations, magnitude, unit vectors, algebra of vectors,
applications Student
Presentation (Group 4 Travis and Frehiwet
Application of Vectors) |
Set
14 (Section 11.4) Part
II – rest of problems |
|
Wed. |
|
|
|
|
Fri. |
Test 3 |
|
|
|
Mon. |
|
Section
12.2 Vectors in Three Dimensions.
Vectors, distance formula, basic planes, spheres, balls, magnitude and
unit vectors, algebra, applications Student
Presentation (Group 5: Chloe and
Gina: Distance Formula and Equation of
Sphere) |
|
|
Wed. |
|
|
Set
16 (Section 12.1) |
|
Fri. |
|
|
Set
17 Section 12.2) |
|
Mon. 11/19 Wed. 11/21 Fri. 11/23 |
|
THANKSGIVING
BREAK --NO CLASSES |
|
|
Mon. 11/26 |
|
Section
12.3 Dot
product of vectors. Dot product,
orthogonal vectors, angle between vectors, properties of dot product, orthogonal
projection, applications (force and
work) |
|
|
Wed. 11/28 |
|
|
|
|
Fri. 11/30 |
Section
12.4 Cross
product of vectors. Formula, geometry
of cross product, properties of cross product, normal vector, area of a
triangle and parallelogram.
Application: torque |
Set
18 Section 12.3 |
|
|
Mon. |
|
|
|
|
Wed. 12/05 |
Test
4 |
|
Set
19 Section 12.4 |
|
Fri. |
|
|
|
|
Mon 12/10 |
Final Exam |
12:00
p.m. Comprehensive |
|