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The following question relates to the analysis of linear systems of differential equations in the form , where and is a real constant matrix.
A linear system of differential equations is represented by the phase portrait shown below:
the type of equilibrium point at the origin and characterize the nature of the eigenvalues of the system matrix .
[3]This question involves the analysis of a phase portrait for a system of linear differential equations.
The following phase portrait shows the trajectories of a system of linear differential equations near the origin.
the nature of the eigenvalues of matrix and the type of equilibrium point at the origin. your answers.
[4]This question tests the ability to qualitatively analyze a phase portrait of a system of linear differential equations to the classification of an equilibrium point and the nature of the associated eigenvalues and eigenvectors.
The following phase portrait shows the trajectories of a system of linear differential equations near an equilibrium point at the origin.
Classify the equilibrium point and the nature of the eigenvalues and eigenvectors of matrix .
[4]The following phase portrait represents the behavior of a linear system in the plane.
the following phase portrait:
the equilibrium type at the origin and characterize the eigenvalues of the corresponding system.
[5]the type of equilibrium point and its eigenvalues based on the given phase portrait.
Consider the following phase portrait for a linear system of differential equations:
the equilibrium type at the origin and the nature of the eigenvalues, , associated with this system.
[3]Consider the following phase portrait for a system of linear differential equations:
Classify the equilibrium point at the origin and the nature of its corresponding eigenvalues.
[3]the following phase portrait:
the type of equilibrium point at the origin and the characteristics of its eigenvalues.
[3]The following phase portrait is given for a system of linear differential equations:
Classify the equilibrium at the origin and the nature of its eigenvalues.
[4]the type of equilibrium and the nature of the eigenvalues from a given phase portrait.
Consider the phase portrait shown below:
the type of equilibrium at the origin and the eigenvalues (real or complex, distinct or repeated, and sign).
[4]Level: HL Paper: 2
Analyze the phase portrait shown below for a system of linear differential equations:
the type of equilibrium point at the origin and the nature of its eigenvalues.
[5]The diagram shows the phase portrait of a linear system of differential equations near the origin.
the type of equilibrium point at the origin and the nature of its eigenvalues.
[3]