WorksheetsOptimization Techniques Unit-2- QUIZ - 17-04-2020
Total questions: 10
Worksheet time: 10mins
What represents 1, 2 and 3 in sequence ?
Minima, Maxima and Inflection
Minima, Inflection and Maxima
Maxima, Inflection and Minima
Inflection, Minima and Maxima
Local (or) Relative Minima
f(x*) ≥ f(x* + h)
f(x*) ≤ f(x* + h)
f(x*) ≥ f(x)
f(x*) ≤ f(x)
Identify correct options
Local Maxima - B, C
Local Maxima - A, B, C
Local Maxima - P, Q
Local Minima - P, Q
Global Maxima - C
In Working Rule (Algorithm) for Unconstrained Multivariable optimization equations of J1 and J2
J1=∣(∂2f)/(∂x12)∣
J1=∣(∂2f)/(∂x22)∣
Most important Solution Methods for Multivariable Optimization with Equality constraints are
Direct Substitution Method
Gauss-Jordan method
Constrained Variation Method
Lagrange Multipliers Method
Cramer’s rule
Lagrange Multipliers Method suitable only when
m - No. of Constraints
n - No. of Variables
m>n
m=n
m<n
Kuhn-Tucker Conditions are
λj〖g〗j=0, j=1,2,…,m
〖g〗j≤0, j=1,2,…,m
〖λ〗j≥0, j=1,2,…,m
The Lagrange Function can be written as
L(x,λ)=f(x1,x2)+λg1(x1,x2)+λg2(x1,x2)
L(x,λ)=f(x1,x2)+λ1g1(x1,x2)+λ2g2(x1,x2)
L(x,λ)=f(x1,x2)+λ1g(x1,x2)+λ2g(x1,x2)
Lagrange Function
L(xi,λj)=f(xi)+λ〖g〗(xi)
L(xi,λj)=f(x)+λj〖g〗(xi)
L(xi,λj)=f(x)+λ〖g〗j(xi)
L(xi,λj)=f(xi)+λj〖g〗j(xi)
Kuhn and Tucker are
Scientists
Mathematicians
Physicians
