quote:
Op maandag 23 december 2013 19:16 schreef tfors het volgende:[..]
Dan zou ik in plaats van calculus 2 en 3 iets anders zoeken, dat gebruikt je niet echt in die richting zo ver ik weet.
Calculus 1 is dit:
1. The student knows the principle of mathematical induction and is able to apply that technique to prove a statement about positive integers.
2. The student can calculate with complex numbers, can plot them in the complex plane, is able to formulate and use De Moivre's Theorem, can compute roots of a complex number and can solve equations in that way; the student can give the definition of the complex exponential function and can use that in applications.
3. The student can give the precise definition of a limit and can apply the definition in simple proofs. The student can calculate limits using the limit laws, the Squeeze Theorem and l'Hospital's rule.
4. The student knows the definition of continuity, examples of discontinuity and basic properties of continuous functions; in particularly, the student can state and apply the Intermediate Value Theorem.
5. The student can give the definition of the derivative of a function and can use that in simple proofs, knows the derivative of all basic functions and can calculate derivatives with the help of differentation rules. When derivatives are computed in applied situations, the student can explain their meaning. The student can compute a tangent line or linear approximation and can give the geometric meaning of differentials.
6. The student can prove Rolle's Theorem and the Mean Value Theorem and can deduce basic facts concerning extreme values of functions.
7. The student is able to give the definitions of a antiderivative and of a definite integral, can reproduce a proof of the Fundamental Theorem of Calculus and is able to view differentiation and integration as inverse processes.
8. The student can apply the standard techniques of integration (substitution rule, integration by parts, trigonometric integrals and substitutions, integration of rational functions by partial fractions) and is able to recognize which technique is best used in a given situation.
9. The student is able to formulate first-order differential equations that are used to model population growth, or electric circuits, for instance. The student can solve a separable first-order differential equations and can find a general solution of a first-order linear differential equation using an integrating factor.
Calculus 2&3:
- parametric curves
- vector-value functions
- partial derivatives
- linear approximation of a multivariable function
- tangent planes of graphs of multivariable functions
- multivariable Taylor expansion
- chain rule
- directional derivatives and gradient vectors
- extrema of multivariable functions
- Lagrange multipliers
- multiple integrals
- Jacobian
- rotation and divergence of vector fields
- surface integrals
- line integrals
- Stokes', Green's and Gauss' Theorems,
- sequences of real numbers
- limits of a sequence
- series
- convergence of series
- power series
- sequences/series of functions,
- uniform convergence
- Taylor expansions,
- Fourier series
- Fourier integral
- Second order ordinary differential equations
- Partial Differential equations
Nu moet ik eerlijk bekennen dat sommige termen in C 2&3 mij niet zoveel zeggen, en misschien helemaal niet toepasbaar zijn in de logica. Heb je misschien een idee wat een alternatief zou kunnen zijn?