tp116r.apm.m4
Model tp116r
! Source version 2
! The present file has to be drawn through the m4 macro processor
! at first, with or without `-Drevisedhs'. With the macro
! defined, the feasible domain is reduced in comparison with the H+S
! one such that some unwanted secondary minimum is excluded.
ifdef(`revisedhs',`define(`stricths',0)',`define(`stricths',1)')
Variables
x[ 1] = 0.5, >= 0.1, <= 1
x[ 2] = 0.8, >= 0.1, <= 1
x[ 3] = 0.9, >= 0.1, <= 1
x[ 4] = 0.1, >= 0.0001, <= 0.1
x[ 5] = 0.14, >= 0.1, <= 0.9
x[ 6] = 0.5, >= 0.1, <= 0.9
x[ 7] = 489, >= 0.1, <= 1000
x[ 8] = 80, >= 0.1, <= 1000
x[ 9] = 650, >= 500, <= 1000
x[10] = 450, >= 0.1, <= 500
x[11] = 150, >= 1, <= 150
x[12] = 150, >= 0.0001, <= 150
x[13] = 150, >= 0.0001, <= 150
obj
End Variables
Intermediates
mf = x[11] + x[12] + x[13]
c[ 1] = x[3] - x[2] ifelse(stricths,1,`',`- .04')
c[ 2] = x[2] - x[1]
c[ 3] = 1 - .002*x[7] + .002*x[8]
c[ 4] = mf - 50
c[ 5] = 250 - mf
c[ 6] = x[13] - 1.262626*x[10] &
+ 1.231059*x[3]*x[10]
c[ 7] = x[5] - .03475*x[2] - .975*x[2]*x[5] &
+ .00975*x[2]^2
c[ 8] = x[6] - .03475*x[3] - .975*x[3]*x[6] &
+ .00975*x[3]^2
c[ 9] = x[5]*x[7] - x[1]*x[8] - x[4]*x[7] &
+ x[4]*x[8]
c[10] = 1 - .002*(x[2]*x[9] + x[5]*x[8] - &
x[1]*x[8] - x[6]*x[9]) &
- x[5] - x[6]
c[11] = x[2]*x[9] - x[3]*x[10] - x[6]*x[9] &
- 500*x[2] + 500*x[6] + x[2]*x[10]
c[12] = x[2] - .9 - .002*(x[2]*x[10] - &
x[3]*x[10])
c[13] = x[4] - .03475*x[1] - .975*x[1]*x[4] &
+ .00975*x[1]^2
c[14] = x[11] - 1.262626*x[8] &
+ 1.231059*x[1]*x[8]
c[15] = x[12] - 1.262626*x[9] &
+ 1.231059*x[2]*x[9]
End Intermediates
Equations
c[1:15] >= 0
obj = mf
! best known objective = 97.58750955807048
! begin of best known solution
! x[ 1] = 0.8037731573766545
! x[ 2] = 0.8999858006730378
! x[ 3] = 0.9709824354837897
! x[ 4] = 0.1
! x[ 5] = 0.1908131762155071
! x[ 6] = 0.4606547828520911
! x[ 7] = 574.0775735827624
! x[ 8] = 74.07757358276241
! x[ 9] = 500.0161601689685
! x[10] = 0.1
! x[11] = 20.23309069736758
! x[12] = 77.34768992730733
! x[13] = 0.006728933395576131
! end of best known solution
End Equations
End Model
Stephan K.H. Seidl