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2005 - 2006 / Course descriptions / IR301101 Calculus 3 (Matematiske metoder 3)  

IR301101 Calculus 3 (Matematiske metoder 3)

Course Code
IR301101

Course Name
Calculus 3 (Matematiske metoder 3)

Credits
9.00

Target Audience
Engineering students who want to take a master degree in engineering.

Prerequisites xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' ><paragraph>IR 101101 Discrete Matematics and Linear Algebra</line>IR 101201 Calculus 1 </line>IR 201101 Calculus 2</paragraph></s xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' >

IR 101101 Discrete Matematics and Linear Algebra
IR 101201 Calculus 1
IR 201101 Calculus 2

Objectives xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' ><paragraph>After completion of the course the students should</line>- be able to sketch the graph of polar coordinates equations and parametric curves.</line>- know the connection between a parametric curve and the motion of a particle given by the position vector.</line>- know how to caltulate the velocity vector and the acceleration vector of moving particles.</line>- be able to find the equation for the tangent line and calculate area of surfaces related to curves defined by parametic or polar equations.</line>- know the formula for the arc length and differential and know how to calulate the length of curves given by parametric equations.</line>- be able to calculate double and trippel integral.</line>- know about spherical and cylindrical coordinates and to do calculations i these coordinate systems.</line>- be able to calculate area, volum and moments by use of multiple integral.</line>- know about directional derivative, gradient vector, divergence and circulation of a vector field.</line>- know how to calculate line integral and surface integral.</line>- know the theorem of Green, Gauss and Stoke and be able to do calculations using these theorems.</line>- be able to find particular solutions of partial differential equations of first and second order by d'Alembert solution and by separation the variables.</line>- know how to derive the one-dimensional heat equation and the one-dimensional wave equation and be able to find particular solutions under given boundary conditions.</line>- be able to find particular solutions of the two-dimensional Laplace equation under given boundary conditions.</paragraph></s xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' >

After completion of the course the students should
- be able to sketch the graph of polar coordinates equations and parametric curves.
- know the connection between a parametric curve and the motion of a particle given by the position vector.
- know how to caltulate the velocity vector and the acceleration vector of moving particles.
- be able to find the equation for the tangent line and calculate area of surfaces related to curves defined by parametic or polar equations.
- know the formula for the arc length and differential and know how to calulate the length of curves given by parametric equations.
- be able to calculate double and trippel integral.
- know about spherical and cylindrical coordinates and to do calculations i these coordinate systems.
- be able to calculate area, volum and moments by use of multiple integral.
- know about directional derivative, gradient vector, divergence and circulation of a vector field.
- know how to calculate line integral and surface integral.
- know the theorem of Green, Gauss and Stoke and be able to do calculations using these theorems.
- be able to find particular solutions of partial differential equations of first and second order by d'Alembert solution and by separation the variables.
- know how to derive the one-dimensional heat equation and the one-dimensional wave equation and be able to find particular solutions under given boundary conditions.
- be able to find particular solutions of the two-dimensional Laplace equation under given boundary conditions.

Topics xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' ><paragraph>Coordinate:</line>- polar, cylindrical and spherical coordinates</line>- calculate area of surfaces related to curves defined by parametic or polar equations</line>Plan curves and curves in space:</line>- Position vector, velocity vector and accelration vector</line>-arc length</line>- Curvature of plane curves</line>- Curvature of space curves</line>- How to integrate and derivate vector functions</line>- Line integral along curves</line>- Fundamental theorem for line integrals</line>Surfaces in space:</line>- Cylinders and quadric surfaces</line>- Surfaces of revolution</line>Multiple integrals:</line>- Double and trippel integral</line>- Calculating areal and volum by use of double integral</line>- Double integral in polar coordinates</line>- Areal of surfaces in space</line>- Surface integral</line>- Trippel integral in cartesial, cylindrical and spherical coordinates with applications.</line> Vector calculus:</line>- Gradient vector</line>- Direction derivative. Potential function, conservative fields</line>- Divergens and curl of vector fields</line>- Greens theorem</line>- The divergence theorem</line>- Stokes theorem</line>Partial differential equations:</line>- Partial differential equations of first and second order.</line>- One-dimensional heat equation. One-dimensional wave equation</line>- d'Alembert solution</line>- Laplaces equation</paragraph></s xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' >

Coordinate:
- polar, cylindrical and spherical coordinates
- calculate area of surfaces related to curves defined by parametic or polar equations
Plan curves and curves in space:
- Position vector, velocity vector and accelration vector
-arc length
- Curvature of plane curves
- Curvature of space curves
- How to integrate and derivate vector functions
- Line integral along curves
- Fundamental theorem for line integrals
Surfaces in space:
- Cylinders and quadric surfaces
- Surfaces of revolution
Multiple integrals:
- Double and trippel integral
- Calculating areal and volum by use of double integral
- Double integral in polar coordinates
- Areal of surfaces in space
- Surface integral
- Trippel integral in cartesial, cylindrical and spherical coordinates with applications.
Vector calculus:
- Gradient vector
- Direction derivative. Potential function, conservative fields
- Divergens and curl of vector fields
- Greens theorem
- The divergence theorem
- Stokes theorem
Partial differential equations:
- Partial differential equations of first and second order.
- One-dimensional heat equation. One-dimensional wave equation
- d'Alembert solution
- Laplaces equation

Instruction xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' ><paragraph>Lectures and problem solvings</paragraph></s xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' >

Lectures and problem solvings

Mandatory Assignments xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' ><paragraph>At the beginning of the course the professor can decide if the students have to do some obligatory problems.</paragraph></s xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' >

At the beginning of the course the professor can decide if the students have to do some obligatory problems.

Evaluation xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' ><paragraph>Written exams.</paragraph></s xmlns:xhtml='http://ez.no/namespaces/ezpublish3/xhtml/' >

Written exams.

Revised date
03/03/2004