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###########################################################################
##
#W new.g OpenMath Package Marco Costantini
#W Alexander Konovalov
##
#Y Copyright (C) 1999, 2000, 2001, 2006
#Y School Math and Comp. Sci., University of St. Andrews, Scotland
#Y Copyright (C) 2004, 2005, 2006 Marco Costantini
##
## This file contains updates to the record OMsymRecord, according to
## the current OpenMath CDs (for converting from OpenMath to GAP).
##
#######################################################################
##
## Conversion from OpenMath to GAP, to be moved into gap.g after tests
##
OMsymRecord_new := rec(
calculus1 := rec(
partialdiff :=
# the code is correct, but the problem is to match variables
# during OpenMath encoding/decoding - check handling of polyd1.DMP
function(x)
local ind, f, i;
ind := x[1];
f := x[2];
for i in ind do
Print( "Derivative of ", f, " by ", i, " = \c" );
f := Derivative( f, i );
Print( f, "\n" );
if IsZero(f) then
return f;
fi;
od;
return f;
end
),
complex1 := rec(
argument := fail,
complex_cartesian := x -> OMgapId([OMgap2ARGS(x), x[1]+E(4)*x[2]])[2],
complex_polar := fail,
conjugate := x -> OMgapId([OMgap1ARGS(x), x -> ComplexConjugate( x[1] )])[2], # check this!!!
imaginary := x -> OMgapId([OMgap1ARGS(x), x -> (x[1] - ComplexConjugate( x[1] )) / 2]* -1/2 *E(4))[2], # check this!!!
real := x -> OMgapId([OMgap1ARGS(x), x -> (x[1] + ComplexConjugate( x[1] )) / 2])[2] # check this!!!
),
linalg1 := rec(
determinant := x -> DeterminantMat(x[1]),
matrix_selector := x -> x[3][x[1]][x[2]],
outerproduct := x -> TransposedMat([x[1]])*[x[2]],
scalarproduct := x -> x[1]*x[2],
transpose := x -> TransposedMat(x[1]),
vector_selector := x -> x[2][x[1]],
vectorproduct :=
function( x )
local z1, z2, z3;
z1 := x[1][2]*x[2][3] - x[1][3]*x[2][2];
z2 := x[1][3]*x[2][1] - x[1][1]*x[2][3];
z3 := x[1][1]*x[2][2] - x[1][2]*x[2][1];
return [ z1, z2, z3 ];
end
),
linalg2 := rec(
matrix := OMgapMatrix,
matrixrow := OMgapMatrixRow,
vector := OMgapMatrixRow
),
linalg3 := rec(
matrix := fail,
matrixcolumn := fail,
vector := fail
),
linalg4 := rec(
characteristic_eqn :=fail,
columncount :=fail,
eigenvalue :=fail,
eigenvector :=fail,
rank :=fail,
rowcount :=fail,
size := fail
),
linalg5 := rec(
("anti-Hermitian") :=fail,
banded :=fail,
constant :=fail,
diagonal_matrix :=fail,
Hermitian :=fail,
identity :=fail,
("lower-Hessenberg") :=fail,
("lower-triangular") :=fail,
scalar :=fail,
("skew-symmetric") :=fail,
symmetric :=fail,
tridiagonal :=fail,
("upper-Hessenberg") :=fail,
("upper-triangular") :=fail,
zero := fail
),
linalg6 := rec(
matrix_tensor := fail,
vector_tensor := fail
),
linalg7 := rec(
list_to_matrix := fail,
list_to_vector := fail
),
minmax1 := rec(
min := x -> Minimum(x[1]),
max := x-> Maximum(x[1])
),
relation3 := rec( # TO BE TESTED
class := fail,
classes := fail,
equivalence_closure := x -> TransitiveClosureBinaryRelation(
SymmetricClosureBinaryRelation(
ReflexiveClosureBinaryRelation( x[1] ) ) ),
is_equivalence := x -> IsEquivalenceRelation( x[1] ),
is_reflexive := x -> IsReflexiveBinaryRelation( x[1] ),
is_relation := fail,
is_symmetric := x -> IsSymmetricBinaryRelation( x[1] ),
is_transitive := x -> IsTransitiveBinaryRelation( x[1] ),
reflexive_closure := x -> ReflexiveClosureBinaryRelation( x[1] ),
symmetric_closure := x -> SymmetricClosureBinaryRelation( x[1] ),
transitive_closure := x -> TransitiveClosureBinaryRelation( x[1] )
),
relation4 := rec(
eqs := fail
),
);
OM_append_new := function ( )
local cd, name;
MakeReadWriteGlobal( "OMsymRecord" );
for cd in RecNames( OMsymRecord_new ) do
if IsBound( OMsymRecord.(cd) ) then
for name in RecNames( OMsymRecord_new.(cd) ) do
OMsymRecord.(cd).(name) := OMsymRecord_new.(cd).(name);
od;
else
OMsymRecord.(cd) := OMsymRecord_new.(cd);
fi;
od;
MakeReadOnlyGlobal( "OMsymRecord" );
end;
OM_append_new();
Unbind( OM_append_new );
OMsymRecord_private := rec();
OM_append_private := function ( )
local cd, name;
if IsExistingFile( Concatenation( GAPInfo.PackagesInfo.("openmath")[1].InstallationPath,"/private/private.g") ) then
Read( Concatenation( GAPInfo.PackagesInfo.("openmath")[1].InstallationPath,"/private/private.g") );
fi;
MakeReadWriteGlobal( "OMsymRecord" );
for cd in RecNames( OMsymRecord_private ) do
if IsBound( OMsymRecord.(cd) ) then
for name in RecNames( OMsymRecord_private.(cd) ) do
OMsymRecord.(cd).(name) := OMsymRecord_private.(cd).(name);
od;
else
OMsymRecord.(cd) := OMsymRecord_private.(cd);
fi;
od;
MakeReadOnlyGlobal( "OMsymRecord" );
end;
OM_append_private();
Unbind( OM_append_private );
#############################################################################
#E
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