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<Worksheet><Version major="6" minor="0"/><View-Properties><Zoom percentage="100"/></View-Properties><Styles><Layout alignment="left" bullet="none" name="Warning"/><Layout alignment="left" bullet="none" name="Normal"/><Layout alignment="centred" bullet="none" linespacing="0.5" name="Maple Output"/><Font background="[0,0,0]" family="Monospaced" foreground="[0,0,255]" name="Warning" readonly="true" size="12"/><Font background="[0,0,0]" bold="false" family="Times New Roman" foreground="[0,0,0]" italic="false" name="Text" opaque="false" size="12" underline="false"/><Font background="[0,0,0]" family="Times New Roman" foreground="[0,0,255]" name="2D Output" readonly="true" size="12"/><Font background="[0,0,0]" bold="true" executable="true" family="Monospaced" foreground="[255,0,0]" name="Maple Input" size="12"/><Font background="[0,0,0]" family="Monospaced" foreground="[0,0,255]" name="Line Printed Output" readonly="true" size="12"/></Styles><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">restart:</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">with(linalg): with(combinat): with(LinearAlgebra):with(ListTools):libname:= `/homes/vector4/k/kapovich/CONVEX`, libname: with(convex):</Text-field></Input><Output><Text-field layout="Warning" style="Warning">Warning, the protected names norm and trace have been redefined and unprotected
</Text-field></Output><Output><Text-field layout="Warning" style="Warning">Warning, the assigned name fibonacci now has a global binding
</Text-field></Output><Output><Text-field layout="Warning" style="Warning">Warning, the protected name Chi has been redefined and unprotected
</Text-field></Output><Output><Text-field layout="Warning" style="Warning">Warning, the assigned name GramSchmidt now has a global binding
</Text-field></Output><Output><Text-field layout="Warning" style="Warning">Warning, the names DotProduct and Transpose have been rebound
</Text-field></Output><Output><Text-field layout="Warning" style="Warning">Warning, the assigned name Group now has a global binding
</Text-field></Output><Output><Text-field layout="Normal" style="Line Printed Output">Convex version 1.1.1, Copyright (C) 1999-2004 Matthias Franz
This package is distributed under the GNU General Public License,
see http://www-fourier.ujf-grenoble.fr/~franz/convex/ for more information.
</Text-field></Output><Output><Text-field layout="Warning" style="Warning">Warning, the names dotprod, polar and rank have been redefined
</Text-field></Output></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text"><Font bold="true" size="14">The goal of the program  <Font underline="true">irred.mw</Font> is to show that the system of stability and chamber inequalities is </Font></Text-field><Text-field layout="Normal" style="Text"><Font bold="true" size="14">irredundant and that it determines a cone D=D(SO(8)) which has 306 facets and 81 extremal rays. </Font></Text-field><Text-field layout="Normal" style="Text"/></Input></Group><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">StackMatrix:= proc(A,B) local T:

T:=convert(stackmatrix(A,B), Matrix): end:</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">TranSpose:= proc(M) local T:
T:=convert(transpose(M),Matrix): end: </Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text"><Font bold="true">Triality</Font> action on the given n-by-12 Matrix M.</Text-field><Text-field layout="Normal" style="Text"><Font executable="false">
We start with the empty 0-by-12 matrix S. We convert it to 6*n-by-12 matrix S obtained by applying triality permutations to M. Namely, </Font></Text-field><Text-field layout="Normal" style="Text">each row r of M is written in the form [w1, w2, w3]. Triality acts by simultaneously permuting 1, 3, 4 coordinates of the vectors wi. </Text-field><Text-field layout="Normal" style="Text"/><Text-field layout="Normal" style="Text">We will be primarily using it for n=162. 
</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text">Below is a program for the triality permutation: 
</Text-field></Input></Group><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">triality:=proc(M)  local n, i, r, w, V, j, k, v, L, LL, s, ll, u, S; S:=matrix(0,12): n:=RowDimension(M): 
for i from 1 to n do 

r:=Row(M, i):  w[1]:=convert(SubVector(r, [1..4]), vector): w[2]:=convert(SubVector(r, [5..8]), vector): w[3]:=convert(SubVector(r, [9..12]), vector): 
V:=convert(stackmatrix(w[1], w[2], w[3]), Matrix): 

for j from 1 to 4 do v[j]:= Column(V, j): od: L:=[v[1], v[3], v[4]]: 		#list of columns to permute

LL:=permute(L):							#permutation of the columns

s:=matrix(0,12):

for k from 1 to 6 do 	#begin smallcycle
ll[k]:= augment(LL[k,1], v[2], LL[k,2], LL[k,3]): 

u[k]:= convert(ll[k], vector): 

s:=stackmatrix(s, u[k]):

od: S:= stackmatrix(S,s): od:
S:=convert(S,Matrix):
#print(S): 
end: #we are NOT printing the output matrix

</Text-field></Input></Group><Text-field/><Group><Input><Pagebreak/></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text"><Font bold="true">Permutation</Font></Text-field><Text-field layout="Normal" style="Text"/><Text-field layout="Normal" style="Text">Below is a program for permutations of the rows of an n-by-12 matrix X. Each row r is written in the form r=[w1, w2, w3] and then the subvectors wi are permuted. </Text-field><Text-field layout="Normal" style="Text">The output is the matrix T which is 6*n-by-12.</Text-field><Text-field layout="Normal" style="Text"/></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">permutation:=proc(X)  local n, i, W, w, Lis, lis, j, l, T; T:=Matrix(0,12):  n:=RowDimension(X):

for i from 1 to n do 

W:=Row(X,i): w[1]:=SubVector(W, [1..4]):  w[2]:=SubVector(W, [5..8]): w[3]:=SubVector(W, [9..12]): 

Lis:=[w[1], w[2], w[3]]: lis:=permute(Lis): 

for j from 1 to 6 do

l[j]:=convert(lis[j],Vector[row]): T:=StackMatrix(T, l[j]): 

od: 

od: 

#print(T); #We are NOT printing the output matrix

end:

 </Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text">Procedure <Font bold="true">remdup</Font> removes duplicate members of a list</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">remdup:=proc(L) local LL, n, k, x:
n:=nops(L); # number of entries in L
if n&lt;=1 then
return L; # if L has 0 or 1 entries we are done
fi;

LL:=[L[1]]; # add the first entry of L to LL
for k from 2 to n do
if member(L[k],L[1..k-1]) then
; # do not add any entries which come earlier
else # (so in effect remove later duplicates)
LL:=[op(LL),L[k]];
fi;
od;

LL:

end:</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text">Procedure <Font bold="true">Cull</Font> removes duplicate rows of a matrix: </Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">Cull:=proc(M) local n, m, r, i, L, l, N :

n:=RowDimension(M): m:=ColumnDimension(M): 

L:=[]:

for i from 1 to n do r:=[seq(M[i,j], j=1..m)]: 

L:= [op(L), r]: od: 

l:=remdup(L):

N:=convert(l,Matrix);

end: </Text-field><Pagebreak/></Input></Group><Group><Input><Text-field layout="Normal" style="Text"><Font executable="false">Below we are entering generalized triangle inequalities for SO(8). We first enter unpermuted inequalities; we then apply S_3 x S_3 action to permute them. </Font></Text-field><Text-field/></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text">We start with the Grassmanian G/P_2.</Text-field></Input></Group><Text-field/><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">b0:=matrix(1,4,[1,1,0,0]): b1:=matrix(1,4,[1,0,1,0]): b21:=matrix(1,4,[0,1,1,0]): b22:=matrix(1,4,[1,0,0,1]): b23:=matrix(1,4,[1,0,0,-1]):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input"> b31:=matrix(1,4,[0,1,0,1]): b32:=matrix(1,4,[0,1,0,-1]): b33:=matrix(1,4,[1,0,-1,0]): </Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input"> b41:=matrix(1,4,[0,0,1,1]): b42:=matrix(1,4,[0,1,-1,0]): b43:=matrix(1,4,[0,0,1,-1]):b44:=matrix(1,4,[1,-1,0,0]):</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text"><Font bold="true" executable="false">ERI </Font><Font executable="false">(essential reduced inequalities) for G/P_2:</Font></Text-field></Input></Group><Text-field/><Text-field/><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB1:=augment(b1, b1, -b21):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB2:=augment(b1, b21, -b31):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB12:=augment(b22, b23, -b42):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB11:=augment(b22, b22, -b41):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB10:=augment(b21, b23, -b42):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB9:=augment(b21, b22, -b42):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB8:=augment(b21, b21, -b41):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB7:=augment(b1, b33, -b42):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB6:=augment(b1, b32, -b42):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB5:=augment(b1, b31, -b42):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB4:=augment(b1, b31, -b41):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB3:=augment(b1, b22, -b31):</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">ERI2:=stackmatrix(BB1,BB2,BB3,BB4,BB5,BB6,BB7,BB8,BB9,BB10,BB11,BB12):#These are the ERI for G/P_2</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text"><Font bold="true" executable="false">Weak Triange Inequalities</Font><Font executable="false"> (WTI) for G/P_2:</Font></Text-field></Input></Group><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">BB13:=augment(b0,b0,-b0): BB14:=augment(b1,b0,-b1): BB15:=augment(b21,b0,-b21): BB16:=augment(b31,b0,-b31): BB17:=augment(b41,b0,-b41): BB18:=augment(b42,b0,-b42):</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">WTI2:=stackmatrix(BB13,BB14,BB15,BB16,BB17,BB18):#WTE for G/P_2</Text-field></Input></Group><Text-field/><Text-field/><Group><Input><Text-field layout="Normal" style="Text"><Font executable="false">We now enter inequalities for the Grassmanian G/P_1</Font></Text-field></Input></Group><Text-field/><Text-field/><Group><Input><Text-field layout="Normal" style="Text"><Font bold="true">Generators: </Font></Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">d0:=matrix(1,4,[1,0,0,0]):d1:=matrix(1,4,[0,1,0,0]):d2:=matrix(1,4,[0,0,1,0]): d32:=matrix(1,4,[0,0,0,-1]): d31:=matrix(1,4,[0,0,0,1]):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">d4:=matrix(1,4,[0,0,-1,0]): d5:=-d1: d6:=-d0:</Text-field></Input></Group><Text-field/><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">ERI1:=stackmatrix(augment(d1,d1,d4), augment(d1,d2,d31), augment(d2,d32,-d5)):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">WTI1:=stackmatrix(augment(d0,d0,d6), augment(d1,d0,d5), augment(d31,d0,d32), augment(d2,d0,d4)):  </Text-field></Input></Group><Group><Input><Text-field layout="Normal" style="Text"/><Text-field layout="Normal" style="Text">Below is the full matrix of unpermuted inequalities for SO(8):</Text-field><Text-field layout="Normal" style="Text"/></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">inequalities:=stackmatrix(ERI1, WTI1, ERI2, WTI2):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">M:=convert(inequalities, Matrix):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">Dimensions(M);</Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiQiI0QiIzc=</Equation></Text-field></Output></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text">The matrix Inequalities contains all the unpermuted inequalities written in Bourbaki coordinates. We next convert to the fundamental weight coordinates.</Text-field></Input><Input><Text-field layout="Normal" style="Text">We then apply triality and permutation to the above 25 inequalities to produce the full system of inequalities. We first write the transition matrix. </Text-field></Input></Group><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">o:=Matrix(12,12);#zero matrix</Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiM+SSJvRzYiLUknUlRBQkxFR0YlNisiKitmNU4iSSlhbnl0aGluZ0dJKnByb3RlY3RlZEdGK0knTWF0cml4RzYkRitJKF9zeXNsaWJHRiVJLHJlY3Rhbmd1bGFyR0YlSS5Gb3J0cmFuX29yZGVyR0YlNyIiIiM7IiIiIiM3RjM=</Equation></Text-field></Output></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text"/></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">omega := Matrix([[1, 1, 1/2, 1/2], [0, 1, 1/2, 1/2], [0, 0, 1/2, 1/2], [0, 0, (-1)/2, 1/2]]);#matrix of fundamental weights</Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiM+SSZvbWVnYUc2Ii1JJ1JUQUJMRUdGJTYlIiprJSo9TyItSSdNQVRSSVhHRiU2IzcmNyYiIiJGLyNGLyIiI0YwNyYiIiFGL0YwRjA3JkYzRjNGMEYwNyZGM0YzIyEiIkYxRjBJJ01hdHJpeEc2JEkqcHJvdGVjdGVkR0Y6SShfc3lzbGliR0Yl</Equation></Text-field></Output></Group><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">o[1..4,1..4]:=omega: o[5..8,5..8]:=omega: o[9..12,9..12]:=omega: Omega:=o;#transition matrix</Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiM+SSZPbWVnYUc2Ii1JJ1JUQUJMRUdGJTYrIiorZjVOIkkpYW55dGhpbmdHSSpwcm90ZWN0ZWRHRitJJ01hdHJpeEc2JEYrSShfc3lzbGliR0YlSSxyZWN0YW5ndWxhckdGJUkuRm9ydHJhbl9vcmRlckdGJTciIiIjOyIiIiIjN0Yz</Equation></Text-field></Output></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text"/></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">id:=IdentityMatrix(12):</Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">m:=Multiply(M,Omega);</Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiM+SSJtRzYiLUknUlRBQkxFR0YlNisiKlsxRFEiSSlhbnl0aGluZ0dJKnByb3RlY3RlZEdGK0knTWF0cml4RzYkRitJKF9zeXNsaWJHRiVJLHJlY3Rhbmd1bGFyR0YlSS5Gb3J0cmFuX29yZGVyR0YlNyIiIiM7IiIiIiNEO0Y0IiM3</Equation></Text-field></Output></Group><Group><Input><Text-field layout="Normal" style="Text">We now permute matrix m. We first apply  permutation and then triality: </Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">am:=permutation(m,25):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">Dimensions(am);</Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiQiJF0iIiM3</Equation></Text-field></Output></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">pm:=triality(am,150):</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">Dimensions(pm);</Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiQiJCsqIiM3</Equation></Text-field></Output></Group><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input"><Font opaque="false">k:=Cull(pm):</Font></Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">RowDimension(k);#This is the number of permuted inequalities left</Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiMiJCVI</Equation></Text-field></Output></Group><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input"><Font opaque="false">K:=StackMatrix(k,id);#This is the final inequality matrix in varpi-coordinates, including the chamber inequalities</Font></Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiM+SSJLRzYiLUknUlRBQkxFR0YlNisiKksieiVRIkkpYW55dGhpbmdHSSpwcm90ZWN0ZWRHRitJJ01hdHJpeEc2JEYrSShfc3lzbGliR0YlSSxyZWN0YW5ndWxhckdGJUkuRm9ydHJhbl9vcmRlckdGJTciIiIjOyIiIiIkMSQ7RjQiIzc=</Equation></Text-field></Output></Group><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input"><Font opaque="false">ExportMatrix("K.txt", K):
#Saving matrix K for the future use, e.g. for computing Hilbert basis. </Font></Text-field></Input></Group><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input"/></Input></Group><Group><Input><Text-field layout="Normal" style="Text">The matrix  k  had only 294 distinct rows. The matrix k is the full matrix of stability inequalities in varpi-coordinates. What is missing are the </Text-field><Text-field layout="Normal" style="Text">chamber inequalities which amount to requiring that all vectors in question belong to the positive orthant C. </Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text"/><Text-field layout="Normal" style="Text">Below we use the package CONVEX to compute the facets of the cone D obtained by imposing the inequalities given by  k  on the positive orthant P. </Text-field><Text-field layout="Normal" style="Text">The package also computes the extremal rays of the cone D. </Text-field><Text-field layout="Normal" style="Text"/></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">P:=posorthant(12): C:=P:</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">
 for i from 1 to 294 do

r[i]:=Row(k,i):   C:= intersection(C, r[i]) od:

h:=hspaces(C): #It took my computer about 5 minutes to compute the facets of the cone C. </Text-field></Input></Group><Text-field/><Group><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">H:=convert(h,Matrix):  NumberOfReducedInequalities:=RowDimension(H);</Text-field></Input><Input><Text-field layout="Normal" prompt="&gt; " style="Maple Input">rc:=rays(C): RC:=convert(rc,Matrix): NumberOfRays:=RowDimension(RC);</Text-field></Input><Output><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiM+STxOdW1iZXJPZlJlZHVjZWRJbmVxdWFsaXRpZXNHNiIiJDEk</Equation></Text-field><Text-field layout="Maple Output" style="2D Output"><Equation style="2D Output">NiM+SS1OdW1iZXJPZlJheXNHNiIiIyIp</Equation></Text-field></Output></Group><Text-field/><Group><Input><Text-field layout="Normal" style="Text"><Font bold="true" executable="false" size="16">Since the cone D was given by  a system of 306 inequalities and has 306 facets, all these </Font></Text-field><Text-field layout="Normal" style="Text"><Font bold="true" executable="false" size="16">inequalities are irredundant. </Font><Font bold="true" size="16">Thus the system of linear inequalities given by the matrix </Font></Text-field><Text-field layout="Normal" style="Text"><Font bold="true" size="16">K  is irredundant. The cone D  has 81 extremal rays.</Font></Text-field></Input></Group><Text-field/><RTable handle="135105900" >TTdSMApJNlJUQUJMRV9TQVZFLzEzNTEwNTkwMFgsJSlhbnl0aGluZ0c2IjYiW2dsISIlISEhI1t0Ii0iLSIiIiIiIUYoRihGKEYoRihGKEYoRihGCihGKEYnRidGKEYoRihGKEYoRihGKEYoRihGKCNGJyIiI0YpRikjISIiRipGKEYoRihGKEYoRihGKEYoRilGKUYpRilGKEYoRihGKEYoRigKRihGKEYoRihGKEYoRidGKEYoRihGKEYoRihGKEYoRihGKEYoRidGJ0YoRihGKEYoRihGKEYoRihGKEYoRilGKUYpRitGKEYoRihGKEYoRgooRihGKEYpRilGKUYpRihGKEYoRihGKEYoRihGKEYoRihGKEYoRidGKEYoRihGKEYoRihGKEYoRihGKEYoRidGJ0YoRihGKEYoRihGKEYoCkYoRihGKEYpRilGKUYrRihGKEYoRihGKEYoRihGKEYpRilGKUYpRiYK</RTable><RTable handle="136189464" >TTdSMApJNlJUQUJMRV9TQVZFLzEzNjE4OTQ2NFgsJSlhbnl0aGluZ0c2IjYiW2dsISIlISEhIzEiJSIlIiIiIiIhRihGKEYnRidGKEYoI0YnIiIjCkYpRikjISIiRipGKUYpRilGKUYmCg==</RTable><RTable handle="135105900" >TTdSMApJNlJUQUJMRV9TQVZFLzEzNTEwNTkwMFgsJSlhbnl0aGluZ0c2IjYiW2dsISIlISEhI1t0Ii0iLSIiIiIiIUYoRihGKEYoRihGKEYoRihGCihGKEYnRidGKEYoRihGKEYoRihGKEYoRihGKCNGJyIiI0YpRikjISIiRipGKEYoRihGKEYoRihGKEYoRilGKUYpRilGKEYoRihGKEYoRigKRihGKEYoRihGKEYoRidGKEYoRihGKEYoRihGKEYoRihGKEYoRidGJ0YoRihGKEYoRihGKEYoRihGKEYoRilGKUYpRitGKEYoRihGKEYoRgooRihGKEYpRilGKUYpRihGKEYoRihGKEYoRihGKEYoRihGKEYoRidGKEYoRihGKEYoRihGKEYoRihGKEYoRidGJ0YoRihGKEYoRihGKEYoCkYoRihGKEYpRilGKUYrRihGKEYoRihGKEYoRihGKEYpRilGKUYpRiYK</RTable><RTable handle="138250648" >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</RTable><RTable handle="138479132" >M7R0
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</RTable></Worksheet>