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#! /bin/sh
######################################
##### Model Transformation Tools #####
######################################
# Bourne shell script: csm2sm_r
# Constrained-state equation to linear constrained-state matrices conversion
# P.J.Gawthrop 6th September 1991, May 1994
# Copyright (c) P.J.Gawthrop, 1991, 1994, 1996
###############################################################
## Version control history
###############################################################
## $Id$
## $Log$
## Revision 1.2 1996/08/25 10:11:32 peter
## Added END in output file.
## Error handling.
##
## Revision 1.1 1996/08/19 15:06:16 peter
## Initial revision
##
echo Creating $1_sm.r
# Remove the old log file
rm -f csm2sm_r.log
# Use reduce to accomplish the transformation
reduce >csm2sm_r.log << EOF
in "$1_def.r";
in "$1_csm.r";
in "$1_cr.r";
in "$1_sympar.r";
OFF Echo;
OFF Nat;
% Find MTTA and MTTB : the A and B matrices
MTTinvE := MTTE^(-1);
MTTA := MTTinvE*MTTA;
MTTB := MTTinvE*MTTB;
%Create the output file
OUT "$1_sm.r";
%Write out the matrices.
IF MTTNx>0 THEN
BEGIN
write "matrix MTTA(", MTTNx, ",", MTTNx, ");";
FOR i := 1:MTTNx DO
FOR j := 1:MTTNx DO IF MTTA(i,j) NEQ 0 THEN
write "MTTA(", i, ",", j, ") := ", MTTA(i,j);
END;
IF MTTNx>0 THEN
IF MTTNu>0 THEN
BEGIN
write "matrix MTTB(", MTTNx, ",", MTTNu, ");";
FOR i := 1:MTTNx DO
FOR j := 1:MTTNu DO IF MTTB(i,j) NEQ 0 THEN
write "MTTB(", i, ",", j, ") := ", MTTB(i,j);
END;
%Write it out
IF MTTNy>0 THEN
IF MTTNx>0 THEN
BEGIN
write "matrix MTTC(", MTTNy, ",", MTTNx, ");";
FOR i := 1:MTTNy DO
FOR j := 1:MTTNx DO IF MTTC(i,j) NEQ 0 THEN
write "MTTC(", i, ",", j, ") := ", MTTC(i,j);
END;
IF MTTNy>0 THEN IF MTTNu>0 THEN
BEGIN
write "matrix MTTD(", MTTNy, ",", MTTNu, ");";
FOR i := 1:MTTNy DO
FOR j := 1:MTTNu DO IF MTTD(i,j) NEQ 0 THEN
write "MTTD(", i, ",", j, ") := ", MTTD(i,j);
END;
SHUT "$1_sm.r";
quit;
EOF
# Now invoke the standard error handling.
mtt_error_r csm2sm_r.log
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#! /bin/sh
######################################
##### Model Transformation Tools #####
######################################
# Bourne shell script: sm2can_r
# state matrices to various canonical forms.
# P.J.Gawthrop 12 Jan 1997
# Copyright (c) P.J.Gawthrop 1997
###############################################################
## Version control history
###############################################################
## $Id$
## $Log$
###############################################################
# Inform user
echo Creating $1_can.r -- NOTE this is for SISO systems only.
# Remove the old log file
rm -f sm2can_r.log
# Use reduce to accomplish the transformation
reduce >sm2can_r.log << EOF
in "$1_def.r";
in "$1_sm.r";
in "$1_tf.r";
%Read the formatting function
in "$MTTPATH/trans/reduce_matrix.r";
OFF Echo;
OFF Nat;
% Find the controllability and observibility matrices.
MATRIX MTTCon(MTTNx,MTTNX);
MTTAB := MTTB;
FOR j := 1:MTTNx DO
BEGIN
FOR i := 1:MTTNx DO
MTTCon(i,j) := MTTAB(i,1);
MTTAB := MTTA*MTTAB;
END;
MATRIX MTTObs(MTTNx,MTTNX);
MTTCA := MTTC;
FOR i := 1:MTTNx DO
BEGIN
FOR j := 1:MTTNx DO
MTTObs(i,j) := MTTCA(1,j);
MTTCA := MTTCA*MTTA;
END;
%Canonical forms:
% This statement makes Gs a scalar transfer function
Gs := MTTtf(1,1);
% Numerator and denominator polynomials
bs := num(gs);
as := den(gs);
% extract coeficients and divide by coeff of s^n
% reverse operator puts list with highest oder coeffs first
ai := reverse(coeff(as,s));
a0 := first(ai);
MTTn := length(ai) - 1;
% Normalised coeficients;
ai := reverse(coeff(as/a0,s));
bi := reverse(coeff(bs/a0,s));
MTTm := length(bi)-1;
% Zap the (unity) first element of ai list;
ai := rest(ai);
% System in controller form
% MTTA_c matrix
matrix MTTA_c(MTTn,MTTn);
% First row is ai coefficients
for i := 1:MTTn do
MTTA_c(1,i) := -part(ai,i);
% (MTTn-1)x(MTTn-1) unit matrix in lower left-land corner (if n>1)
if MTTn>1 then
for i := 1:MTTn-1 do
MTTA_c(i+1,i) := 1;
% B_c vector;
matrix MTTB_c(MTTn,1);
MTTB_c(1,1) := 1;
% C_c vector;
matrix MTTC_c(1,MTTn);
for i := 1:MTTm+1 do
MTTC_c(1,i+MTTn-MTTm-1) := part(bi,i);
% D_c
MTTD_c := MTTD;
%Observable form.
MTTA_o := tp(MTTA_c);
MTTB_o := tp(MTTC_c);
MTTC_o := tp(MTTB_c);
MTTD_o := MTTD;
%Controllability matrix of controllable form
MATRIX MTTCon_c(MTTNx,MTTNX);
MTTAB := MTTB_c;
FOR j := 1:MTTNx DO
BEGIN
FOR i := 1:MTTNx DO
MTTCon_c(i,j) := MTTAB(i,1);
MTTAB := MTTA_c*MTTAB;
END;
% Transformation matrix;
MTTT_c := MTTCon_c*MTTCon^(-1);
%Observability matrix of observer form
MATRIX MTTObs_o(MTTNx,MTTNX);
MTTCA := MTTC_o;
FOR i := 1:MTTNx DO
BEGIN
FOR j := 1:MTTNx DO
MTTObs_o(i,j) := MTTCA(1,j);
MTTCA := MTTCA*MTTA_o;
END;
% Transformation matrix;
MTTT_o := MTTObs^(-1)*MTTObs_o;
%%%% Controller design %%%%%
% gain in controller form:
matrix MTTk_c(1,mttn);
matrix alpha_c(9,1);
alpha_c(1,1) := alpha_c1;
alpha_c(2,1) := alpha_c2;
alpha_c(3,1) := alpha_c3;
alpha_c(4,1) := alpha_c4;
alpha_c(5,1) := alpha_c5;
alpha_c(6,1) := alpha_c6;
alpha_c(7,1) := alpha_c7;
alpha_c(8,1) := alpha_c8;
alpha_c(9,1) := alpha_c9;
for i := 1:MTTNx do
MTTk_c(1,i) := alpha_c(i,1) - part(ai,i);
% Gain in physical form
MTTk := MTTk_c*MTTT_c;
%%%% Observer design %%%%%
% gain in Observer form:
matrix MTTl_o(MTTn,1);
matrix alpha_o(9,1);
alpha_o(1,1) := alpha_o1;
alpha_o(2,1) := alpha_o2;
alpha_o(3,1) := alpha_o3;
alpha_o(4,1) := alpha_o4;
alpha_o(5,1) := alpha_o5;
alpha_o(6,1) := alpha_o6;
alpha_o(7,1) := alpha_o7;
alpha_o(8,1) := alpha_o8;
alpha_o(9,1) := alpha_o9;
for i := 1:MTTNx DO
MTTL_o(i,1) := alpha_o(i,1) - part(ai,i);
% Gain in physical form
MTTL := MTTT_o*MTTL_o;
% Steady-state stuff
% Create the matrix [A B; C D];
matrix ABCD(MTTn+1,MTTn+1);
for i := 1:MTTNx do
for j := 1:MTTNx do
ABCD(i,j) := MTTA(i,j);
for i :=1:MTTNx do
ABCD(i,MTTNx+1) := MTTB(i,1);
for j := 1:MTTNx do
ABCD(MTTNx+1,j) := MTTC(1,j);
ABCD(MTTNx+1,MTTNx+1) := MTTD(1,1);
matrix zero_one(MTTNx+1,1);
zero_one(MTTNx+1,1) := 1;
%Find N vector
Nxu := ABCD^(-1)*zero_one;
%Extract the parts
MATRIX MTTX_r(MTTNx,1);
FOR i := 1:MTTNx DO
MTTX_r(i,1) := Nxu(i,1);
MTTu_r := Nxu(MTTNx+1,1);
% Compensator
matrix zero(MTTNx,1);
%State matrices
MTTA_comp := MTTA - MTTL*MTTC - MTTB*MTTK;
MTTB_comp := -MTTL;
MTTC_comp := -MTTK;
%Transfer function
%Ds := C_d*((s*MTTI - A_d)^(-1))*B_d;
%MTTTFC := Ds;
%Create the output file
OUT "$1_can.r";
%Write out the matrices.
% Controllable form
MTT_Matrix := MTTA_c$
MTT_Matrix_name := "MTTA_c"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
MTT_Matrix := MTTB_c$
MTT_Matrix_name := "MTTB_c"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNu$
Reduce_Matrix()$
MTT_Matrix := MTTC_c$
MTT_Matrix_name := "MTTC_c"$
MTT_Matrix_n := MTTNy$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
% Observable form
MTT_Matrix := MTTA_o$
MTT_Matrix_name := "MTTA_o"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
MTT_Matrix := MTTB_o$
MTT_Matrix_name := "MTTB_o"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNu$
Reduce_Matrix()$
MTT_Matrix := MTTC_o$
MTT_Matrix_name := "MTTC_o"$
MTT_Matrix_n := MTTNy$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
write "% - Controllability matrix";
MTT_Matrix := MTTCon$
MTT_Matrix_name := "MTTCon"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
write "% -Observability matrix";
MTT_Matrix := MTTObs$
MTT_Matrix_name := "MTTObs"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
write "% -Controllability matrix - controller form";
MTT_Matrix := MTTCon_c$
MTT_Matrix_name := "MTTCon_c"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
write "% - Transformation matrix - controller form";
MTT_Matrix := MTTT_c$
MTT_Matrix_name := "MTTT_c"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
write "% - Gain matrix - controller form";
MTT_Matrix := MTTK_c$
MTT_Matrix_name := "MTTK_c"$
MTT_Matrix_n := MTTNu$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
write "% - Gain matrix - physical form";
MTT_Matrix := MTTK$
MTT_Matrix_name := "MTTK"$
MTT_Matrix_n := MTTNu$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
write "% -Observability matrix - Observer form";
MTT_Matrix := MTTObs_o$
MTT_Matrix_name := "MTTObs_o"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
write "% - Transformation matrix - Observer form";
MTT_Matrix := MTTT_o$
MTT_Matrix_name := "MTTT_o"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
write "% - Observer Gain matrix - observer form";
MTT_Matrix := MTTL_o$
MTT_Matrix_name := "MTTL_o"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNy$
Reduce_Matrix()$
write "% - Gain matrix - physical form";
MTT_Matrix := MTTL$
MTT_Matrix_name := "MTTL"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNy$
Reduce_Matrix()$
% Controllable form
MTT_Matrix := MTTA_comp$
MTT_Matrix_name := "MTTA_comp"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
MTT_Matrix := MTTB_comp$
MTT_Matrix_name := "MTTB_comp"$
MTT_Matrix_n := MTTNx$
MTT_Matrix_m := MTTNu$
Reduce_Matrix()$
MTT_Matrix := MTTC_comp$
MTT_Matrix_name := "MTTC_comp"$
MTT_Matrix_n := MTTNy$
MTT_Matrix_m := MTTNx$
Reduce_Matrix()$
KX := MTTK*MTTX_r;
MTTu_r := MTTu_r + KX(1,1);
MTTu_r := MTTu_r;
write "END;";
SHUT "$1_can.r";
quit;
EOF
# Now invoke the standard error handling.
mtt_error_r sm2can_r.log
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