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| close all;
clear all;
format compact;
%% TYPE & CONFIGURATION APPAREILS
%
%
%%%%%%%%%%%
AC_type = ' B744 ' ; %
%%%%%%%%%%%
disp(['Type Appareil :', AC_type]);
%%%%%%%
Yth = 400 ; %
Cth = 280 ; %
Fth = 98 ; %
%%%%%%%
%
%
%% LECTURE DONNEES ENTREE
% A = importdata('data_J.txt');
[Ligne, Classe, date, dem, delta, prix, ddem] = ...
textread('data_J.txt','%s%s%d%d%d%d%d','headerlines',1);
%% CALCUL VARIATION PRIX PAR SIEGE
a = delta ./ (dem - ddem);
b = (prix - delta) + a .* dem;
% Creation valeurs abscisse pr chque classe
xY=0:1:Yth;
xC=0:1:Cth;
xF=0:1:Fth;
% Calcul des prix par siege correspondant a un nb de sieges
% Classe Eco (Y)
for i=1:1:length(dem)/3;
for j=1:1:length(xY);
k=0:1:length(dem)/3-1;
aa = a(3*k+1);
bb = b(3*k+1);
Ay(i, j) = -aa(i) .* xY(1, j) + bb(i);
end
end
% Classe Club / Business (C)
for i=1:1:length(dem)/3;
for j=1:1:length(xC);
k=0:1:length(dem)/3-1;
aa = a(3*k+2);
bb = b(3*k+2);
Ac(i, j) = -aa(i) .* xC(1, j) + bb(i);
end
end
% Classe First (F)
for i=1:1:length(dem)/3;
for j=1:1:length(xF);
k=0:1:length(dem)/3-1;
aa = a(3*k+3);
bb = b(3*k+3);
Af(i, j) = -aa(i) .* xF(1, j) + bb(i);
end
end
% hold all;
% figure(1);
% % prompt ?????
% plot(xY, Ay(1,:), xC, Ac(1,:), xF, Af(1,:));
% xlabel('Nb de sieges');
% ylabel('Prix par siege ($)');
% % title('\a(
% legend('Eco', 'Club', 'First');
%% CALCUL RENTABILITE
% en fonction du nb de sieges
% et du prix calcule par siege
% Classe Eco (Y)
for i=1:1:length(dem)/3;
for j=1:1:length(xY);
epsilonY(i, j) = xY(1, j) .* Ay(i, j);
end
end
% Classe Club / Business (C)
for i=1:1:length(dem)/3;
for j=1:1:length(xC);
epsilonC(i, j) = xC(1, j) .* Ac(i, j);
end
end
% Classe First (F)
for i=1:1:length(dem)/3;
for j=1:1:length(xF);
epsilonF(i, j) = xF(1, j) .* Af(i, j);
end
end
%% REPERAGE RENTABILITE MAXIMUM
% Classe Eco (Y)
for i=1:1:length(dem)/3;
maxY(i, 1) = max(epsilonY(i, :)); % reperage valeur maximum
indiceY(i, 1) = find(epsilonY(i, :) == maxY(i, 1)); % determination rang du max ds matrice
optimumY(i, 1) = xY(1, indiceY(i, 1)); % equivalence nb de siege a partir rang ds matrice
end
% Classe Club / Business (C)
for i=1:1:length(dem)/3;
maxC(i, 1) = max(epsilonC(i, :));
indiceC(i, 1) = find(epsilonC(i, :) == maxC(i, 1));
optimumC(i, 1) = xC(1, indiceC(i, 1));
end
% Classe First (F)
for i=1:1:length(dem)/3;
maxF(i, 1) = max(epsilonF(i, :));
indiceF(i, 1) = find(epsilonF(i, :) == maxF(i, 1));
optimumF(i, 1) = xF(1, indiceF(i, 1));
end
%% CALCUL NOUVEAUX TARIFS
% Rappel : a = delta ./ (dem - ddem);
% Classe Eco (Y)
for i=1:1:length(dem)/3;
k=0:1:length(dem)/3-1;
aa = a(3*k+1);
demY = ddem(3*k+1);
DeltaY(i, 1) = aa(i) .* (demY(i) - optimumY(i));
prixY = prix(3*k+1);
PrixY(i, 1) = prixY(i) + DeltaY(i);
end
% Classe Club / Business (C)
for i=1:1:length(dem)/3;
k=0:1:length(dem)/3-1;
aa = a(3*k+2);
demC = ddem(3*k+2);
DeltaC(i, 1) = aa(i) .* (demC(i) - optimumC(i));
prixC = prix(3*k+2);
PrixC(i, 1) = prixC(i) + DeltaC(i);
end
% Classe First (F)
for i=1:1:length(dem)/3;
k=0:1:length(dem)/3-1;
aa = a(3*k+3);
demF = ddem(3*k+3);
DeltaF(i, 1) = aa(i) .* (demF(i) - optimumF(i));
prixF = prix(3*k+3);
PrixF(i, 1) = prixF(i) + DeltaF(i);
end
%% ASSEMBLAGES MATRICE RESULTATS
data_JJ = zeros(length(dem).*2, 5);
for k=0:1:length(dem)/3-1;
i=k+1;
deb=6.*i-5;
fin=6.*i;
% construction matrice de resultats avec strings (colonnes 1 et 2)
assemblage{i, 1} = [Ligne(3*k+1, 1) Classe(3*k+1, 1) date(3*k+1, 1) dem(3*k+1, 1) delta(3*k+1, 1) prix(3*k+1, 1) ddem(3*k+1, 1) ; ...
Ligne(3*k+1, 1) Classe(3*k+1, 1) date(3*k+1, 1)+1 ddem(3*k+1, 1) DeltaY(i, 1) PrixY(i, 1) optimumY(i, 1) ; ...
Ligne(3*k+2, 1) Classe(3*k+2, 1) date(3*k+2, 1) dem(3*k+2, 1) delta(3*k+2, 1) prix(3*k+2, 1) ddem(3*k+2, 1) ; ...
Ligne(3*k+2, 1) Classe(3*k+2, 1) date(3*k+2, 1)+1 ddem(3*k+2, 1) DeltaC(i, 1) PrixC(i, 1) optimumC(i, 1) ; ...
Ligne(3*k+3, 1) Classe(3*k+3, 1) date(3*k+3, 1) dem(3*k+3, 1) delta(3*k+3, 1) prix(3*k+3, 1) ddem(3*k+3, 1) ; ...
Ligne(3*k+3, 1) Classe(3*k+3, 1) date(3*k+3, 1)+1 ddem(3*k+3, 1) DeltaF(i, 1) PrixF(i, 1) optimumF(i, 1) ];
% construction matrice de resultats avec strings only (col 1 et 2) - tentative dépatouillage 1
assemblageSTR{i, 1} = [Ligne(3*k+1, 1) Classe(3*k+1, 1) ; ...
Ligne(3*k+1, 1) Classe(3*k+1, 1) ; ...
Ligne(3*k+2, 1) Classe(3*k+2, 1) ; ...
Ligne(3*k+2, 1) Classe(3*k+2, 1) ; ...
Ligne(3*k+3, 1) Classe(3*k+3, 1) ; ...
Ligne(3*k+3, 1) Classe(3*k+3, 1) ];
% construction matrice de resultats sans strings (col 1 et 2) - tentative depatouillage 2
assemblageNBR = [date(3*k+1, 1) dem(3*k+1, 1) delta(3*k+1, 1) prix(3*k+1, 1) ddem(3*k+1, 1) ; ...
date(3*k+1, 1)+1 ddem(3*k+1, 1) DeltaY(i, 1) PrixY(i, 1) optimumY(i, 1) ; ...
date(3*k+2, 1) dem(3*k+2, 1) delta(3*k+2, 1) prix(3*k+2, 1) ddem(3*k+2, 1) ; ...
date(3*k+2, 1)+1 ddem(3*k+2, 1) DeltaC(i, 1) PrixC(i, 1) optimumC(i, 1) ; ...
date(3*k+3, 1) dem(3*k+3, 1) delta(3*k+3, 1) prix(3*k+3, 1) ddem(3*k+3, 1) ; ...
date(3*k+3, 1)+1 ddem(3*k+3, 1) DeltaF(i, 1) PrixF(i, 1) optimumF(i, 1) ];
end
% for i=1:1:length(dem)/3;
deb=6.*i-5;
fin=6.*i;
% data_JJ(deb, 3) = assemblageNBR{i};
% end |
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