use strict;
package FIGMODELmodel;

=head1 FIGMODELmodel object
=head2 Introduction
Module for manipulating model objects.
=head2 Core Object Methods

=head3 new
Definition:
	FIGMODELmodel = FIGMODELmodel->new();
Description:
	This is the constructor for the FIGMODELmodel object.
=cut
sub new {
	my ($class,$figmodel,$id) = @_;
	
	#Error checking first
	if (!defined($figmodel)) {
		print STDERR "FIGMODELmodel->new(undef,".$id."):figmodel must be defined to create a model object!\n";
		return undef;
	}
	my $self = {_figmodel => $figmodel};
	bless $self;
	if (!defined($id)) {
		$self->figmodel()->error_message("FIGMODELmodel->new(figmodel,undef):id must be defined to create a model object");
		return undef;
	}

	#Checking that the id exists
	my $modelHandle = $self->figmodel()->database()->get_object_manager("model");
	if (!defined($modelHandle)) {
		$self->figmodel()->error_message("FIGMODELmodel->new(figmodel,".$id."):could not load MODELS table. Check database!");
		return undef;
	}

	#If the id is a number, we get the model row by index
	if ($id =~ m/^\d+$/) {
		my $objects = $modelHandle->get_objects();
		$self->{_data} = $objects->[$id];
		$self->figmodel()->{_models}->{$id} = $self;
	} else {
		my $objects = $modelHandle->get_objects({id => $id});
		if (!defined($objects->[0]) && $id =~ m/(.+)(V[^V]+)/) {
			$objects = $modelHandle->get_objects({id => $1});
			if (!defined($objects->[0])) {
				$self->figmodel()->error_message("FIGMODELmodel->new(figmodel,".$id."):could not find model ".$id." in database!");
				return undef;
			}
			$self->{_selectedversion} = $2;
		} elsif (!defined($objects->[0])) {
			$self->figmodel()->error_message("FIGMODELmodel->new(figmodel,".$id."):could not find model ".$id." in database!");
			return undef;
		}
		$self->{_data} = $objects->[0];
	}
	if (!defined($self->{_data})) {
		$self->figmodel()->error_message("FIGMODELmodel->new(figmodel,".$id."):could not find specified id in database!");
		return undef;
	}
	$self->figmodel()->{_models}->{$self->id()} = $self;
	
	return $self;
}

=head3 config
Definition:
	ref::key value = FIGMODELmodel->config(string::key);
Description:
	Trying to avoid using calls that assume configuration data is stored in a particular manner.
	Call this function to get file paths etc.
=cut
sub config {
	my ($self,$key) = @_;
	return $self->figmodel()->config($key);
}

=head3 fail
Definition:
	-1 = FIGMODELmodel->fail();
Description:
	Standard return for failed functions.
=cut
sub fail {
	my ($self) = @_;
	return $self->figmodel()->fail();
}

=head3 success
Definition:
	1 = FIGMODELmodel->success();
Description:
	Standard return for successful functions.
=cut
sub success {
	my ($self) = @_;
	return $self->figmodel()->success();
}

=head3 figmodel
Definition:
	FIGMODEL = FIGMODELmodel->figmodel();
Description:
	Returns a FIGMODEL object
=cut
sub figmodel {
	my ($self) = @_;
	return $self->{"_figmodel"};
}

=head3 fig
Definition:
	FIGMODEL = FIGMODELmodel->fig();
Description:
	Returns a FIG object
=cut
sub fig {
	my ($self) = @_;
	if (!defined($self->{_fig}) && $self->source() !~ /^MGRAST/) {
		if ($self->source() =~ /^RAST/) {
			$self->{"_fig"} = $self->figmodel()->fig();#$self->genome());
		} else {
			$self->{"_fig"} = $self->figmodel()->fig();
		}
	}
	return $self->{"_fig"};
}

=head3 aquireModelLock

Definition:

	FIGMODELmodel->aquireModelLock();

Description:

	Locks the database for alterations relating to the current model object

=cut
sub aquireModelLock {
	my ($self) = @_;
	$self->figmodel()->database()->genericLock($self->id());
}

=head3 releaseModelLock

Definition:

	FIGMODELmodel->releaseModelLock();

Description:

	Unlocks the database for alterations relating to the current model object

=cut
sub releaseModelLock {
	my ($self) = @_;
	$self->figmodel()->database()->genericUnlock($self->id());
}

=head3 mgdata
Definition:
	FIGMODEL = FIGMODELmodel->mgdata();
Description:
	Returns a mgrast database object
=cut
sub mgdata {
	my ($self) = @_;
	if (!defined($self->{_mgdata}) && $self->source() =~ /^MGRAST/) {
		require MGRAST;
		$self->{_mgdata} = $self->figmodel()->mgrast()->Job->get_objects( { 'genome_id' => $self->genome() } )
	}
	return $self->{_mgdata};
}

=head3 id
Definition:
	string = FIGMODELmodel->id();
Description:
	Returns model id
=cut
sub id {
	my ($self) = @_;
	return $self->{_data}->id();
}

=head3 owner
Definition:
	string = FIGMODELmodel->owner();
Description:
	Returns the username for the model owner
=cut
sub owner {
	my ($self) = @_;
	return $self->{_data}->owner();
}

=head3 name
Definition:
	string = FIGMODELmodel->name();
Description:
	Returns the name of the organism or metagenome sample being modeled
=cut
sub name {
	my ($self) = @_;

	if (!defined($self->{_name})) {
		my $source = $self->source();
		if ($source =~ /^MGRAST/) {
			$self->{_name} = "NA";
			if (defined($self->mgdata())) {
				$self->{_name} = $self->mgdata()->genome_name;
			}
		} elsif ($source !~ /^RAST/) {
			$self->{_name} = $self->fig()->orgname_of_orgid($self->genome());
		} else {
			$self->{_name} = $self->figmodel()->get_genome_stats($self->genome())->{NAME}->[0];
		}
	}

	return $self->{_name};
}

=head3 get_reaction_class
Definition:
	string = FIGMODELmodel->get_reaction_class(string::reaction ID);
Description:
	Returns reaction class
=cut
sub get_reaction_class {
	my ($self,$reaction,$nohtml,$brief_flux) = @_;

	if (!-e $self->directory()."ReactionClassification-".$self->id().".tbl") {
		if (!defined($self->{_reaction_classes})) {
			$self->{_reaction_classes} = $self->figmodel()->database()->load_table($self->directory()."ReactionClassification-".$self->id()."-Complete.tbl",";","|",0,["REACTION"]);
			if (!defined($self->{_reaction_classes})) {
				return undef;
			}
		}

		my $ClassRow = $self->{_reaction_classes}->get_row_by_key($reaction,"REACTION");
		if (defined($ClassRow) && defined($ClassRow->{CLASS})) {
			my $class;
			my $min = $ClassRow->{MIN}->[0];
			my $max = $ClassRow->{MAX}->[0];
			if ($ClassRow->{CLASS}->[0] eq "Positive") {
				$class = "Essential =>";
				$brief_flux ? $class.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $class.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[0] eq "Negative") {
				$class = "Essential <=";
				$brief_flux ? $class.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $class.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[0] eq "Positive variable") {
				$class = "Active =>";
				$brief_flux ? $class.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $class.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[0] eq "Negative variable") {
				$class = "Active <=";
				$brief_flux ? $class.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $class.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[0] eq "Variable") {
				$class = "Active <=>";
				$brief_flux ? $class.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $class.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[0] eq "Blocked") {
				$class = "Inactive";
			} elsif ($ClassRow->{CLASS}->[0] eq "Dead") {
				$class = "Disconnected";
			}

			if (!defined($nohtml) || $nohtml ne "1") {
				$class = "<span title=\"Flux:".$min." to ".$max."\">".$class."</span>";
			}

			return $class;
		}
		return undef;
	}

	if (!defined($self->{_reaction_classes})) {
		$self->{_reaction_classes} = $self->figmodel()->database()->load_table($self->directory()."ReactionClassification-".$self->id().".tbl",";","|",0,["REACTION"]);
		if (!defined($self->{_reaction_classes})) {
			return undef;
		}
	}

	my $ClassRow = $self->{_reaction_classes}->get_row_by_key($reaction,"REACTION");
	my $classstring = "";
	if (defined($ClassRow) && defined($ClassRow->{CLASS})) {
		for (my $i=0; $i < @{$ClassRow->{CLASS}};$i++) {
			if (length($classstring) > 0) {
				$classstring .= "<br>";
			}
			my $NewClass;
			my $min = $ClassRow->{MIN}->[$i];
			my $max = $ClassRow->{MAX}->[$i];
			if ($ClassRow->{CLASS}->[$i] eq "Positive") {
				$NewClass = $ClassRow->{MEDIA}->[$i].":Essential =>";
				$brief_flux ? $NewClass.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $NewClass.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[$i] eq "Negative") {
				$NewClass = $ClassRow->{MEDIA}->[$i].":Essential <=";
				$brief_flux ? $NewClass.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $NewClass.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[$i] eq "Positive variable") {
				$NewClass = $ClassRow->{MEDIA}->[$i].":Active =>";
				$brief_flux ? $NewClass.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $NewClass.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[$i] eq "Negative variable") {
				$NewClass = $ClassRow->{MEDIA}->[$i].":Active <=";
				$brief_flux ? $NewClass.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $NewClass.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[$i] eq "Variable") {
				$NewClass = $ClassRow->{MEDIA}->[$i].":Active <=>";
				$brief_flux ? $NewClass.="<br>[Flux: ".sprintf("%.3g",$min)." to ".sprintf("%.3g",$max)."]<br>" : $NewClass.="<br>[Flux: ".$min." to ".$max."]<br>";
			} elsif ($ClassRow->{CLASS}->[$i] eq "Blocked") {
				$NewClass = $ClassRow->{MEDIA}->[$i].":Inactive";
			} elsif ($ClassRow->{CLASS}->[$i] eq "Dead") {
				$NewClass = $ClassRow->{MEDIA}->[$i].":Disconnected";
			}

			if (!defined($nohtml) || $nohtml ne "1") {
				$NewClass = "<span title=\"Flux:".$min." to ".$max."\">".$NewClass."</span>";
			}
			$classstring .= $NewClass;
		}
	}
	return $classstring;
}

=head3 get_biomass
Definition:
	string = FIGMODELmodel->get_biomass();
Description:
	Returns data for the biomass reaction
=cut
sub get_biomass {
	my ($self) = @_;

	if (!defined($self->{_biomass})) {
		my $rxntbl = $self->reaction_table();
		if (defined($rxntbl)) {
			for (my $i=0; $i < $rxntbl->size(); $i++) {
				if ($rxntbl->get_row($i)->{"LOAD"}->[0] =~ m/bio\d\d\d\d\d/) {
					$self->{_biomass} = $rxntbl->get_row($i)->{"LOAD"}->[0];
					last;
				}
			}
		}
	}

	return $self->get_reaction_data($self->{_biomass});
}

=head3 get_reaction_data
Definition:
	string = FIGMODELmodel->get_reaction_data(string::reaction ID);
Description:
	Returns model reaction data
=cut
sub get_reaction_data {
	my ($self,$reaction) = @_;

	if (!defined($self->reaction_table())) {
		return undef;
	}
	if ($reaction =~ m/^\d+$/) {
		$self->reaction_table()->get_row($reaction);
	}
	return $self->reaction_table()->get_row_by_key($reaction,"LOAD");
}

=head3 get_reaction_id
Definition:
	string = FIGMODELmodel->get_reaction_id(string::reaction ID);
Description:
	Returns model reaction id
=cut
sub get_reaction_id {
	my ($self,$reaction) = @_;

	my $Data = $self->get_reaction_data($reaction);
	if (!defined($Data) || !defined($Data->{LOAD}->[0])) {
		return undef;
	}
	return $Data->{LOAD}->[0];
}

=head3 load_model_table

Definition: FIGMODELTable = FIGMODELmodel->load_model_table(string:table name,0/1:refresh the table));
	
Description: Returns the table specified by the input filename. Table will be stored in a file in the model directory.

=cut
sub load_model_table {
	my ($self,$name,$refresh) = @_;
	if (!defined($refresh)) {
		$refresh = 1;
	}
	if ($refresh == 1) {
		delete $self->{"_".$name};
	}
	if (!defined($self->{"_".$name})) {
		my $tbldef = $self->figmodel()->config("$name");
		if (!defined($tbldef)) {
			return undef;
		}
		my $filename = $self->directory().$name."-".$self->id().$self->selected_version().".tbl";
		$self->{"_".$name} = $self->figmodel()->database()->load_table($filename,"\t","|",$tbldef->{headingline}->[0],$tbldef->{hashcolumns});
		if (!defined($self->{"_".$name})) {
			if (defined($tbldef->{prefix})) {
				$self->{"_".$name} = FIGMODELTable->new($tbldef->{columns},$filename,$tbldef->{hashcolumns},"\t","|",join(@{$tbldef->{prefix}},"\n"));
			} else {
				$self->{"_".$name} = FIGMODELTable->new($tbldef->{columns},$filename,$tbldef->{hashcolumns},"\t","|");
			}
		}
	}
	return $self->{"_".$name};
}

=head3 create_table_prototype

Definition:
	FIGMODELTable::table = FIGMODELmodel->create_table_prototype(string::table);
Description:
	Returns a empty FIGMODELTable with all the metadata associated with the input table name
	
=cut
sub create_table_prototype {
	my ($self,$TableName) = @_;
	
	#Checking if the table definition exists in the FIGMODELconfig file
	if (!defined($self->figmodel()->config($TableName))) {
		$self->figmodel()->error_message("FIGMODELdatabase:create_table_prototype:Definition not found for ".$TableName);
		return undef;
	}
	#Checking that this is a database table
	if (!defined($self->config($TableName)->{tabletype}) || $self->config($TableName)->{tabletype}->[0] ne "ModelTable") {
		$self->figmodel()->error_message("FIGMODELdatabase:create_table_prototype:".$TableName." is not a model table!");
		return undef;
	}
	if (!defined($self->config($TableName)->{delimiter})) {
		$self->config($TableName)->{delimiter}->[0] = ";";
	}
	if (!defined($self->config($TableName)->{itemdelimiter})) {
		$self->config($TableName)->{itemdelimiter}->[0] = "|";
	}
	my $prefix;
	if (defined($self->config($TableName)->{prefix})) {
		$prefix = join("\n",@{$self->config($TableName)->{prefix}});
	}
	my $tbl = FIGMODELTable->new($self->config($TableName)->{columns},$self->directory().$self->config($TableName)->{filename_prefix}->[0]."-".$self->id().$self->selected_version().".txt",$self->config($TableName)->{hashcolumns},$self->config($TableName)->{delimiter}->[0],$self->config($TableName)->{itemdelimiter}->[0],$prefix);
	return $tbl;
}

=head3 get_reaction_number
Definition:
	int = FIGMODELmodel->get_reaction_number();
Description:
	Returns the number of reactions in the model
=cut
sub get_reaction_number {
	my ($self) = @_;
	if (!defined($self->reaction_table())) {
		return 0;
	}
	return $self->reaction_table()->size();
}

=head3 reaction_table
Definition:
	FIGMODELTable = FIGMODELmodel->reaction_table();
Description:
	Returns FIGMODELTable with the reaction list for the model
=cut
sub reaction_table {
	my ($self) = @_;

	if (!defined($self->{_reaction_data})) {
		$self->{_reaction_data} = $self->figmodel()->database()->GetDBModel($self->id());
		my $classTbl = $self->reaction_class_table();
		for (my $i=0; $i < $classTbl->size(); $i++) {
			my $row = $classTbl->get_row($i);
			my $rxnRow = $self->{_reaction_data}->get_row_by_key($row->{"REACTION"}->[0],"LOAD");
			for (my $j=0; $j < @{$row->{MEDIA}};$j++) {
				my $class = "Active <=>";
				if ($row->{CLASS}->[$j] eq "Positive") {
					$class = "Essential =>";
				} elsif ($row->{CLASS}->[$j] eq "Negative") {
					$class = "Essential <=";
				} elsif ($row->{CLASS}->[$j] eq "Blocked") {
					$class = "Inactive";
				} elsif ($row->{CLASS}->[$j] eq "Positive variable") {
					$class = "Active =>";
				} elsif ($row->{CLASS}->[$j] eq "Negative variable") {
					$class = "Active <=";
				} elsif ($row->{CLASS}->[$j] eq "Variable") {
					$class = "Active <=>";
				} elsif ($row->{CLASS}->[$j] eq "Dead") {
					$class = "Dead";
				}
				push(@{$rxnRow->{PREDICTIONS}},$row->{MEDIA}->[$j].":".$class);
			}
		}
	}

	return $self->{_reaction_data};
}

=head3 feature_table
Definition:
	FIGMODELTable = FIGMODELmodel->feature_table();
Description:
	Returns FIGMODELTable with the feature list for the model
=cut
sub feature_table {
	my ($self) = @_;

	if (!defined($self->{_feature_data})) {
		#Getting the genome feature list
		my $FeatureTable = $self->figmodel()->GetGenomeFeatureTable($self->genome());
		if (!defined($FeatureTable)) {
			print STDERR "FIGMODELmodel:feature_table:Could not get features for genome ".$self->genome()." in database!";
			return undef;
		}
		#Getting the reaction table for the model
		my $rxnTable = $self->reaction_table();
		if (!defined($rxnTable)) {
	    	print STDERR "FIGMODELmodel:feature_table:Could not get reaction table for model ".$self->id()." in database!";
			return undef;
	    }
		#Cloning the feature table
		$self->{_feature_data} = $FeatureTable->clone_table_def();
		$self->{_feature_data}->add_headings(($self->id()."REACTIONS",$self->id()."PREDICTIONS"));
	    for (my $i=0; $i < $rxnTable->size(); $i++) {
	    	my $Row = $rxnTable->get_row($i);
	    	if (defined($Row) && defined($Row->{"ASSOCIATED PEG"})) {
	    		foreach my $GeneSet (@{$Row->{"ASSOCIATED PEG"}}) {
	    			my $temp = $GeneSet;
	    			$temp =~ s/\+/|/g;
	          		$temp =~ s/\sAND\s/|/gi;
	          		$temp =~ s/\sOR\s/|/gi;
	          		$temp =~ s/[\(\)\s]//g;
	          		my @GeneList = split(/\|/,$temp);
	          		foreach my $Gene (@GeneList) {
	              		my $FeatureRow = $self->{_feature_data}->get_row_by_key("fig|".$self->genome().".".$Gene,"ID");
				  		if (!defined($FeatureRow)) {
							$FeatureRow = $FeatureTable->get_row_by_key("fig|".$self->genome().".".$Gene,"ID");
							if (defined($FeatureRow)) {
								$self->{_feature_data}->add_row($FeatureRow);
							}
				  		}
				 		if (defined($FeatureRow)) {
							$self->{_feature_data}->add_data($FeatureRow,$self->id()."REACTIONS",$Row->{"LOAD"}->[0],1);
				  		}
	          		}
	        	}
	      	}
	    }
	    #Loading predictions
	    my @files = glob($self->directory()."EssentialGenes-".$self->id()."-*");
	    foreach my $file (@files) {
	    	if ($file =~ m/\-([^\-]+)\.tbl/) {
	    		my $media = $1;
	    		my $list = $self->figmodel()->database()->load_single_column_file($file,"");
	    		my $hash;
	    		foreach my $gene (@{$list}) {
	    			$hash->{$gene} = 1;
	    		}
	    		for (my $i=0; $i < $self->{_feature_data}->size(); $i++) {
	    			my $Row = $self->{_feature_data}->get_row($i);
	    			if ($Row->{ID}->[0] =~ m/(peg\.\d+)/) {
	    				my $gene = $1;
	    				if (defined($hash->{$gene})) {
	    					push(@{$Row->{$self->id()."PREDICTIONS"}},$media.":essential");
	    				} else {
	    					push(@{$Row->{$self->id()."PREDICTIONS"}},$media.":nonessential");
	    				}
	    			}
	    		}
	    	}	
	    }
	}
	return $self->{_feature_data};
}

=head3 reaction_class_table
Definition:
	FIGMODELTable = FIGMODELmodel->reaction_class_table();
Description:
	Returns FIGMODELTable with the reaction class data, and creates the table file  if it does not exist
=cut
sub reaction_class_table {
	my ($self) = @_;

	if (!defined($self->{_reaction_class_table})) {
		if (-e $self->directory()."ReactionClassification-".$self->id().$self->selected_version().".tbl") {
			$self->{_reaction_class_table} = $self->figmodel()->database()->load_table($self->directory()."ReactionClassification-".$self->id().$self->selected_version().".tbl",";","|",0,["REACTION","CLASS","MEDIA"]);
		} else {
			$self->{_reaction_class_table} = FIGMODELTable->new(["REACTION","MEDIA","CLASS","MIN","MAX"],$self->directory()."ReactionClassification-".$self->id().$self->selected_version().".tbl",["REACTION","CLASS","MEDIA"],";","|",undef);
		}
	}

	return $self->{_reaction_class_table};
}

=head3 compound_class_table
Definition:
	FIGMODELTable = FIGMODELmodel->compound_class_table();
Description:
	Returns FIGMODELTable with the compound class data, and creates the table file  if it does not exist
=cut
sub compound_class_table {
	my ($self) = @_;

	if (!defined($self->{_compound_class_table})) {
		if (-e $self->directory()."CompoundClassification-".$self->id().$self->selected_version().".tbl") {
			$self->{_compound_class_table} = $self->figmodel()->database()->load_table($self->directory()."CompoundClassification-".$self->id().$self->selected_version().".tbl",";","|",0,["COMPOUND","CLASS","MEDIA"]);
		} else {
			$self->{_compound_class_table} = FIGMODELTable->new(["COMPOUND","MEDIA","CLASS","MIN","MAX"],$self->directory()."CompoundClassification-".$self->id().$self->selected_version().".tbl",["COMPOUND","CLASS","MEDIA"],";","|",undef);
		}
	}

	return $self->{_compound_class_table};
}

=head3 get_essential_genes
Definition:
	[string::peg ID] = FIGMODELmodel->get_essential_genes(string::media condition);
Description:
	Returns an reference to an array of the predicted essential genes during growth in the input media condition
=cut
sub get_essential_genes {
	my ($self,$media) = @_;

	if (!defined($media)) {
		$media = "Complete";
	}
	if (!defined($self->{_essential_genes}->{$media})) {
		$self->{_essential_genes}->{$media} = undef;
		if (-e $self->directory()."EssentialGenes-".$self->id().$self->selected_version()."-".$media.".tbl") {
			$self->{_essential_genes}->{$media} = $self->figmodel()->database()->load_single_column_file($self->directory()."EssentialGenes-".$self->id().$self->selected_version()."-".$media.".tbl","");
		}
	}

	return $self->{_essential_genes}->{$media};
}

=head3 compound_table
Definition:
	FIGMODELTable = FIGMODELmodel->compound_table();
Description:
	Returns FIGMODELTable with the compound list for the model
=cut
sub compound_table {
	my ($self) = @_;

	if (!defined($self->{_compound_table})) {
		$self->{_compound_table} = $self->figmodel()->database()->GetDBModelCompounds($self->id());
	}

	return $self->{_compound_table};
}

=head3 get_compound_data
Definition:
	{string:key=>[string]:values} = FIGMODELmodel->get_compound_data(string::compound ID);
Description:
	Returns model compound data
=cut
sub get_compound_data {
	my ($self,$compound) = @_;

	if (!defined($self->compound_table())) {
		return undef;
	}
	if ($compound =~ m/^\d+$/) {
		return $self->compound_table()->get_row($compound);
	}
	return $self->compound_table()->get_row_by_key($compound,"DATABASE");
}

=head3 get_feature_data
Definition:
	{string:key=>[string]:values} = FIGMODELmodel->get_feature_data(string::feature ID);
Description:
	Returns model feature data
=cut
sub get_feature_data {
	my ($self,$feature) = @_;
	if (!defined($self->feature_table())) {
		return undef;
	}
	if ($feature =~ m/^\d+$/) {
		return $self->feature_table()->get_row($feature);
	}
	if ($feature =~ m/(peg\.\d+)/) {
		$feature = $1;
	}
	return $self->feature_table()->get_row_by_key("fig|".$self->genome().".".$feature,"ID");
}

=head3 genome
Definition:
	string = FIGMODELmodel->genome();
Description:
	Returns model genome
=cut
sub genome {
	my ($self) = @_;
	return $self->{_data}->genome();
}

=head3 source
Definition:
	string = FIGMODELmodel->source();
Description:
	Returns model source
=cut
sub source {
	my ($self) = @_;
	return $self->{_data}->source();
}

=head3 rights
Definition:
	1/0 = FIGMODELmodel->rights(string::username);
Description:
	Returns 1 if the input user can view the model, and zero otherwise
=cut
sub rights {
	my ($self,$username) = @_;
	if ($self->public()) {
		return 1;
	}
	if (!defined($username) || $username eq "NONE") {
		return 0;
	}
	if (!defined($self->{_userrights}->{$username})) {
		$self->{_userrights}->{$self->{_data}->owner()} = 1;
		my @users = split(/\|/,$self->{_data}->users());
		for (my $i=0; $i < @users;$i++) {
			$self->{_userrights}->{$users[$i]} = 1;
		}
	}
	return $self->{_userrights}->{$username};
}

=head3 public
Definition:
	1/0 = FIGMODELmodel->public();
Description:
	Returns 1 if the model is public, and zero otherwise
=cut
sub public {
	my ($self) = @_;
	if ($self->{_data}->users() eq "all") {
		return 1;
	}
	return 0;
}

=head3 directory
Definition:
	string = FIGMODELmodel->directory();
Description:
	Returns model directory
=cut
sub directory {
	my ($self) = @_;

	if (!defined($self->{_directory})) {
		my $userdirectory = "";
		if ($self->owner() ne "master") {
			$userdirectory = $self->owner()."/";
		}
		my $source = $self->source();
		if ($source =~ /^MGRAST/) {
			$self->{_directory} = $self->figmodel()->config("organism directory")->[0].$userdirectory.$self->genome()."/";
		} elsif ($source =~ /^RAST/) {
			$self->{_directory} = $self->figmodel()->config("organism directory")->[0].$userdirectory.$self->genome()."/";
		} elsif ($source =~ /^SEED/) {
			$self->{_directory} = $self->figmodel()->config("organism directory")->[0].$userdirectory.$self->genome()."/";
		} elsif ($source =~ /^PM/) {
			if (length($userdirectory) == 0) {
				$self->{_directory} = $self->figmodel()->config("imported model directory")->[0].$self->id()."/";
			} else {
				$self->{_directory} = $self->figmodel()->config("organism directory")->[0].$userdirectory.$self->id()."/";
			}
		}
	}

	return $self->{_directory};
}

=head3 filename
Definition:
	string = FIGMODELmodel->filename();
Description:
	Returns model filename
=cut
sub filename {
	my ($self) = @_;

	return $self->directory().$self->id().$self->selected_version().".txt";
}

=head3 version
Definition:
	string = FIGMODELmodel->version();
Description:
	Returns the version of the model
=cut
sub version {
	my ($self) = @_;

	if (!defined($self->{_version})) {
		if (!defined($self->{_selectedversion})) {
			$self->{_version} = "V".$self->{_data}->version().".".$self->{_data}->autocompleteVersion();
		} else {
			$self->{_version} = $self->{_selectedversion};
		}
	}
	return $self->{_version};
}

=head3 selected_version
Definition:
	string = FIGMODELmodel->selected_version();
Description:
	Returns the selected version of the model
=cut
sub selected_version {
	my ($self) = @_;

	if (!defined($self->{_selectedversion})) {
		return "";
	}
	return $self->{_selectedversion};
}

=head3 modification_time
Definition:
	string = FIGMODELmodel->modification_time();
Description:
	Returns the selected version of the model
=cut
sub modification_time {
	my ($self) = @_;
	return $self->{_data}->modificationDate();
}

=head3 gene_reactions
Definition:
	string = FIGMODELmodel->gene_reactions();
Description:
	Returns the number of reactions added by the gap filling
=cut
sub gene_reactions {
	my ($self) = @_;
	return ($self->{_data}->reactions() - $self->{_data}->autoCompleteReactions() - $self->{_data}->spontaneousReactions() - $self->{_data}->gapFillReactions());
}

=head3 total_compounds
Definition:
	string = FIGMODELmodel->total_compounds();
Description:
	Returns the number of compounds in the model
=cut
sub total_compounds {
	my ($self) = @_;
	return $self->{_data}->compounds();
}

=head3 gapfilling_reactions
Definition:
	string = FIGMODELmodel->gapfilling_reactions();
Description:
	Returns the number of reactions added by the gap filling
=cut
sub gapfilling_reactions {
	my ($self) = @_;
	return ($self->{_data}->autoCompleteReactions()+$self->{_data}->gapFillReactions());
}

=head3 total_reactions
Definition:
	string = FIGMODELmodel->total_reactions();
Description:
	Returns the total number of reactions in the model
=cut
sub total_reactions {
	my ($self) = @_;
	return $self->{_data}->reactions();
}

=head3 model_genes
Definition:
	string = FIGMODELmodel->model_genes();
Description:
	Returns the number of genes mapped to one or more reactions in the model
=cut
sub model_genes {
	my ($self) = @_;
	return $self->{_data}->associatedGenes();
}

=head3 class
Definition:
	string = FIGMODELmodel->class();
Description:
	Returns the class of the model: gram positive, gram negative, other
=cut
sub class {
	my ($self) = @_;
	return $self->{_data}->cellwalltype();
}

=head3 taxonomy
Definition:
	string = FIGMODELmodel->taxonomy();
Description:
	Returns model taxonomy or biome if this is an metagenome model
=cut
sub taxonomy {
	my ($self) = @_;

	if (!defined($self->{_taxonomy})) {
		my $source = $self->source();
		if ($source =~ /^MGRAST/) {
			$self->{_taxonomy} = "NA";
			my $mgmodeldata = $self->figmodel()->database()->mg_model_data($self->genome());
			if (defined($mgmodeldata)) {
				$self->{_taxonomy} = $mgmodeldata->biome();
			}
		} else {
			$self->{_taxonomy} = $self->fig()->taxonomy_of($self->genome());
		}
	}

	return $self->{_taxonomy};
}

=head3 genome_size
Definition:
	string = FIGMODELmodel->genome_size();
Description:
	Returns size of the modeled genome in KB
=cut
sub genome_size {
	my ($self) = @_;

	if (!defined($self->{_genome_size})) {
		my $source = $self->source();
		if ($source =~ /^MGRAST/) {
			$self->{_genome_size} = "NA";
			if (defined($self->mgdata())) {
				$self->{_genome_size} = $self->mgdata()->size;
			}
		} else {
			$self->{_genome_size} = $self->fig()->genome_szdna($self->genome());
		}
	}

	return $self->{_genome_size};
}

=head3 genome_genes
Definition:
	string = FIGMODELmodel->genome_genes();
Description:
	Returns the number of genes in the modeled genome
=cut
sub genome_genes {
	my ($self) = @_;

	if (!defined($self->{_genome_genes})) {
		my $source = $self->source();
		if ($source =~ /^MGRAST/) {
			$self->{_genome_genes} = "NA";
			if (defined($self->mgdata())) {
				$self->{_genome_genes} = $self->mgdata()->genome_contig_count;
			}
		} else {
			$self->{_genome_genes} = $self->figmodel()->get_genome_stats($self->genome())->{"TOTAL GENES"}->[0];
		}
	}

	return $self->{_genome_genes};
}

=head3 run_default_model_predictions
Definition:
	0/1::status = FIGMODELmodel->run_default_model_predictions(string::media ID);
Description:
=cut
sub run_default_model_predictions {
	my ($self,$Media) = @_;

	#Assuming complete media if none is provided
	if (!defined($Media)) {
		$Media = "Complete";
	}

	#Predicting essentiality
	my $result = $self->figmodel()->RunFBASimulation($self->id(),"SINGLEKO",undef,undef,[$self->id()],[$Media]);
	#Checking that the table is defined and the output file exists
	if (defined($result) && defined($result->get_row(0)->{"ESSENTIALGENES"})) {
		$self->figmodel()->database()->print_array_to_file($self->directory()."EssentialGenes-".$self->id()."-".$Media.".tbl",[join("\n",@{$result->get_row(0)->{"ESSENTIALGENES"}})]);
	} else {
		$self->figmodel()->error_message("FIGMODELmodel:run_default_model_predictions:could not identify essential reactions for model ".$self->id().$self->selected_version().".");
		return $self->figmodel()->fail();
	}

	#Classifying reactions and compounds
	my $tbl = $self->classify_model_reactions($Media);
	if (!defined($tbl)) {
		$self->figmodel()->error_message("FIGMODELmodel:run_default_model_predictions:could not classify reactions for model ".$self->id().$self->selected_version().".");
		return $self->figmodel()->fail();
	}
	$tbl->save();

	return $self->figmodel()->success();
}

=head3 update_stats_for_gap_filling
Definition:
	{string => [string]} = FIGMODELmodel->update_stats_for_gap_filling(int::gapfill time);
Description:
=cut
sub update_stats_for_gap_filling {
	my ($self,$gapfilltime) = @_;
	$self->{_data}->autoCompleteTime($gapfilltime);
	$self->{_data}->autocompleteDate(time());
	$self->{_data}->modificationDate(time());
	my $version = $self->{_data}->autocompleteVersion();
	$self->{_data}->autocompleteVersion($version+1);
}

=head3 update_stats_for_build
Definition:
	{string => [string]} = FIGMODELmodel->update_stats_for_build();
Description:
=cut
sub update_stats_for_build {
	my ($self) = @_;
	$self->{_data}->builtDate(time());
	$self->{_data}->modificationDate(time());
	my $version = $self->{_data}->version();
	$self->{_data}->version($version+1);
}

=head3 update_model_stats
Definition:
	FIGMODELmodel->update_model_stats();
Description:
=cut
sub update_model_stats {
	my ($self) = @_;

	#Getting reaction table
	my $rxntbl = $self->reaction_table();
	if (!defined($rxntbl)) {
		$self->figmodel()->error_message("FIGMODELmodel:update_model_stats:Could not load reaction list for ".$self->id());
		return undef;
	}
	my $cpdtbl = $self->compound_table();

	#Calculating all necessary stats
	my %GeneHash;
	my %NonpegHash;
	my %CompoundHash;
	my $spontaneousReactions = 0;
	my $gapFillReactions = 0;
	my $biologReactions = 0;
	my $transporters = 0;
	my $autoCompleteReactions = 0;
	my $associatedSubsystemGenes = 0;
	for (my $i=0; $i < $rxntbl->size(); $i++) {
		my $Row = $rxntbl->get_row($i);
		if (defined($Row) && defined($Row->{"ASSOCIATED PEG"})) {
			my $ReactionRow = $self->figmodel()->get_reaction($Row->{"LOAD"}->[0]);
			if (defined($ReactionRow->{"EQUATION"}->[0])) {
				#Checking for extracellular metabolites which indicate that this is a transporter
				if ($ReactionRow->{"EQUATION"}->[0] =~ m/\[e\]/) {
					$transporters++;
				}
			}
			#Identifying spontaneous/biolog/gapfilling/gene associated reactions
			if ($Row->{"ASSOCIATED PEG"}->[0] =~ m/BIOLOG/i) {
				$biologReactions++;
			} elsif ($Row->{"ASSOCIATED PEG"}->[0] =~ m/GROW/i) {
				$gapFillReactions++;
			} elsif ($Row->{"ASSOCIATED PEG"}->[0] =~ m/SPONTANEOUS/i) {
				$spontaneousReactions++;
			} elsif ($Row->{"ASSOCIATED PEG"}->[0] =~ m/GAP/ || $Row->{"ASSOCIATED PEG"}->[0] =~ m/UNIVERSAL/i || $Row->{"ASSOCIATED PEG"}->[0] =~ m/UNKNOWN/i) {
				$autoCompleteReactions++;
			} else {
				foreach my $GeneSet (@{$Row->{"ASSOCIATED PEG"}}) {
					$_ = $GeneSet;
					my @GeneList = /(peg\.\d+)/g;
					foreach my $Gene (@GeneList) {
						if ($Gene =~ m/(peg\.\d+)/) {
							$GeneHash{$1} = 1;
						} else {
							$NonpegHash{$Gene} = 1;
						}
					}
				}
			}
		}
	}
	my @genes = keys(%GeneHash);
	my @othergenes = keys(%NonpegHash);
	
	#Setting the reaction count
	$self->{_data}->reactions($rxntbl->size());
	#Setting the metabolite count
	$self->{_data}->compounds($rxntbl->size());
	#Setting the gene count
	my $geneCount = @genes + @othergenes;
	$self->{_data}->associatedGenes($geneCount);
	#Setting remaining stats
	$self->{_data}->spontaneousReactions($spontaneousReactions);
	$self->{_data}->gapFillReactions($gapFillReactions);
	$self->{_data}->biologReactions($biologReactions);
	$self->{_data}->transporters($transporters);
	$self->{_data}->autoCompleteReactions($autoCompleteReactions);
	$self->{_data}->associatedSubsystemGenes($associatedSubsystemGenes);
	#Setting the model class
	my $class = "";
	for (my $i=0; $i < @{$self->figmodel()->config("class list")}; $i++) {
		if (defined($self->figmodel()->config($self->figmodel()->config("class list")->[$i]))) {
			if (defined($self->figmodel()->config($self->figmodel()->config("class list")->[$i])->{$self->id()})) {
				$class = $self->figmodel()->config("class list")->[$i];
				last;
			}
			if ($class eq "" && defined($self->figmodel()->config($self->figmodel()->config("class list")->[$i])->{$self->genome()})) {
				$class = $self->figmodel()->config("class list")->[$i];
			}
		}
	}
	if ($class eq "") {
		$class = $self->figmodel()->get_genome_stats($self->genome())->{CLASS}->[0];
	}
	if ($class eq "") {
		$class = "unknown";	
	}
	$self->{_data}->cellwalltype($class);
}

=head3 GapFillModel
Definition:
	(success/fail) = FIGMODELmodel->GapFillModel();
Description:
	This function performs an optimization to identify the minimal set of reactions that must be added to a model in order for biomass to be produced by the biomass reaction in the model.
	Before running the gap filling, the existing model is backup in the same directory with the current version numbers appended.
	If the model has been gap filled previously, the previous gap filling reactions are removed prior to running the gap filling again.
=cut
sub GapFillModel {
	my ($self,$donotclear) = @_;

	#Setting status of model to gap filling
	my $OrganismID = $self->genome();
	$self->set_status(1,"Auto completion running");
	my $UniqueFilename = $self->figmodel()->filename();
	my $StartTime = time();

	#Archiving the existing model
	$self->ArchiveModel();

	#Removing any gapfilling reactions that may be currently present in the model
	if (!defined($donotclear) || $donotclear != 1) {
		my $ModelTable = $self->reaction_table();
		for (my $i=0; $i < $ModelTable->size(); $i++) {
			if (!defined($ModelTable->get_row($i)->{"ASSOCIATED PEG"}->[0]) || $ModelTable->get_row($i)->{"ASSOCIATED PEG"}->[0] eq "GAP FILLING" || $ModelTable->get_row($i)->{"ASSOCIATED PEG"}->[0] =~ m/BIOLOG/ || $ModelTable->get_row($i)->{"ASSOCIATED PEG"}->[0] =~ m/GROWMATCH/) {
				$ModelTable->delete_row($i);
				$i--;
			}
		}
		$ModelTable->save();
	}

	#Calling the MFAToolkit to run the gap filling optimization
	my $MinimalMediaTable = $self->figmodel()->database()->GetDBTable("MINIMAL MEDIA TABLE");
	my $Media = "Complete";
	if (defined($MinimalMediaTable->get_row_by_key($self->genome(),"Organism"))) {
		$Media = $MinimalMediaTable->get_row_by_key($self->genome(),"Organism")->{"Minimal media"}->[0];
		#Loading media, changing bounds, saving media as a test media
		my $MediaTable = FIGMODELTable::load_table($self->config("Media directory")->[0].$Media.".txt",";","",0,["VarName"]);
		for (my $i=0; $i < $MediaTable->size(); $i++) {
			if ($MediaTable->get_row($i)->{"Min"}->[0] < 0) {
				$MediaTable->get_row($i)->{"Min"}->[0] = -10000;
			}
			if ($MediaTable->get_row($i)->{"Max"}->[0] > 0) {
				$MediaTable->get_row($i)->{"Max"}->[0] = 10000;
			}
		}
		$MediaTable->save($self->config("Media directory")->[0].$UniqueFilename."TestMedia.txt");
		system($self->figmodel()->GenerateMFAToolkitCommandLineCall($UniqueFilename,$self->id(),$UniqueFilename."TestMedia",["GapFilling"],{"Default max drain flux" => 0,"Reactions to knockout" => $self->config("permanently knocked out reactions")->[0]},"GapFill".$self->id().".log",undef));
		unlink($self->config("Media directory")->[0].$UniqueFilename."TestMedia.txt");
	} else {
		system($self->figmodel()->GenerateMFAToolkitCommandLineCall($UniqueFilename,$self->id(),undef,["GapFilling"],{"Reactions to knockout" => $self->config("permanently knocked out reactions")->[0]},"GapFill".$self->id().".log",undef));
	}

	#Parse the solutions file for the model and get the reaction list from it
	my $SolutionData = $self->figmodel()->LoadProblemReport($UniqueFilename);
	#Clearing the mfatoolkit output and log file
	$self->figmodel()->clearing_output($UniqueFilename,"GapFill".$self->id().".log");
	if (!defined($SolutionData) || $SolutionData->size() == 0) {
		$self->set_status(1,"Auto completion failed: auto completion solution not found");
		$self->figmodel()->error_message("FIGMODEL:GapFillModel: Gap filling report not found!");
		return $self->fail();
	}
	$SolutionData->save("/home/chenry/Solution.txt");

	#Looking for the last printed recursive MILP solution
	for (my $i=($SolutionData->size()-1); $i >=0; $i--) {
		if (defined($SolutionData->get_row($i)->{"Notes"}) && $SolutionData->get_row($i)->{"Notes"}->[0] =~ m/^Recursive/) {
			my $AllSolutions = substr($SolutionData->get_row($i)->{"Notes"}->[0],15);
			my @TempThree = split(/\|/,$AllSolutions);
			if (@TempThree > 0 && $TempThree[0] =~ m/.+:(.+)/) {
				my @TempFour = split(/,/,$1);
				my $DirectionList;
				my $ReactionList;
				for (my $j=0; $j < @TempFour; $j++) {
					my $ID = "";
					my $Sign = "=>";
					if ($TempFour[$j] =~ m/\-(rxn\d\d\d\d\d)/) {
						$ID = $1;
						$Sign = "<=";
					} elsif ($TempFour[$j] =~ m/\+(rxn\d\d\d\d\d)/) {
						$ID = $1;
					}
					if ($ID ne "") {
						if ($self->figmodel()->reversibility_of_reaction($ID) ne $Sign) {
							$Sign = "<=>";
						}
						push(@{$DirectionList},$Sign);
						push(@{$ReactionList},$ID);
					}
				}
				$self->figmodel()->IntegrateGrowMatchSolution($self->id(),undef,$ReactionList,$DirectionList,"GAP FILLING",0,1);
			}
			last;
		}
	}
	#Updating model stats with gap filling results
	my $ElapsedTime = time() - $StartTime;
	$self->figmodel()->database()->ClearDBModel($self->id(),1);
	#Determining why each gap filling reaction was added
	$self->figmodel()->IdentifyDependancyOfGapFillingReactions($self->id(),$Media);
	if (!defined($donotclear) || $donotclear != 1) {
		$self->figmodel()->AddBiologTransporters($self->id());
		if ($self->id() !~ m/MGRast/) {
			$self->update_stats_for_gap_filling($ElapsedTime);
		}
	} else {
		$self->update_model_stats();
	}
	#Printing the updated SBML file
	$self->PrintSBMLFile();
	$self->PrintModelLPFile($self->id());
	$self->set_status(1,"Auto completion successfully finished");
	$self->run_default_model_predictions();

	return $self->success();
}

=head3 GapGenModel
Definition:
	FIGMODELmodel->GapGenModel();
Description:
	Runs the gap generation algorithm to correct a single false positive prediction. Results are loaded into a table.
=cut

sub GapGenModel {
	my ($self,$Media,$KOList,$NoKOList,$Experiment,$SolutionLimit) = @_;
	
	#Enforcing nonoptional arguments
	if (!defined($Media)) {
		return undef;
	}
	if (!defined($KOList)) {
		$KOList->[0] = "none";
	}
	if (!defined($NoKOList)) {
		$NoKOList->[0] = "none";
	}
	if (!defined($Experiment)) {
		$Experiment= "ReactionKO";
	}
	if (!defined($SolutionLimit)) {
		$SolutionLimit = "10";
	}
	
	#Translating the KO lists into arrays
	if (ref($KOList) ne "ARRAY") {
		my $temp = $KOList;
		$KOList = ();
		push(@{$KOList},split(/[,;]/,$temp));	
	}
	my $noKOHash;
	if (defined($NoKOList) && ref($NoKOList) ne "ARRAY") {
		my $temp = $NoKOList;
		$NoKOList = ();
		push(@{$NoKOList},split(/[,;]/,$temp));
		foreach my $rxn (@{$NoKOList}) {
			$noKOHash->{$rxn} = 1;
		}
	}
	
	#Checking if solutions exist for the input parameters
	$self->aquireModelLock();
	my $tbl = $self->load_model_table("GapGenSolutions");
	my $solutionRow = $tbl->get_table_by_key($Experiment,"Experiment")->get_table_by_key($Media,"Media")->get_row_by_key(join(",",@{$KOList}),"KOlist");
	my $solutions;
	if (defined($solutionRow)) {
		#Checking if any solutions conform to the no KO list
		foreach my $solution (@{$solutionRow->{Solutions}}) {
			my @reactions = split(/,/,$solution);
			my $include = 1;
			foreach my $rxn (@reactions) {
				if ($rxn =~ m/(rxn\d\d\d\d\d)/) {
					if (defined($noKOHash->{$1})) {
						$include = 0;
					}
				}
			}
			if ($include == 1) {
				push(@{$solutions},$solution);
			}
		}
	} else {
		$solutionRow = {Media => [$Media],Experiment => [$Experiment],KOlist => [join(",",@{$KOList})]};
		$tbl->add_row($solutionRow);
		$self->figmodel()->database()->save_table($tbl);
	}
	$self->releaseModelLock();
	
	#Returning solution list of solutions were found
	if (defined($solutions) && @{$solutions} > 0) {
		return $solutions;
	}
	
	#Getting unique filename
	my $Filename = $self->figmodel()->filename();

	#Running the gap generation
	system($self->figmodel()->GenerateMFAToolkitCommandLineCall($Filename,$self->id().$self->selected_version(),$Media,["GapGeneration"],{"Recursive MILP solution limit" => $SolutionLimit ,"Reactions that should always be active" => join(";",@{$NoKOList}),"Reactions to knockout" => join(";",@{$KOList}),"Reactions that are always blocked" => "none"},"Gapgeneration-".$self->id().$self->selected_version()."-".$Filename.".log",undef,undef));
	my $ProblemReport = $self->figmodel()->LoadProblemReport($Filename);
	if (!defined($ProblemReport)) {
		$self->figmodel()->error_message("FIGMODEL:GapGenerationAlgorithm;No problem report;".$Filename.";".$self->id().$self->selected_version().";".$Media.";".$KOList.";".$NoKOList);
		return undef;
	}
	
	#Clearing the output folder and log file
	$self->figmodel()->clearing_output($Filename,"Gapgeneration-".$self->id().$self->selected_version()."-".$Filename.".log");
	
	#Saving the solution
	$self->aquireModelLock();
	$tbl = $self->load_model_table("GapGenSolutions");
	$solutionRow = $tbl->get_table_by_key($Experiment,"Experiment")->get_table_by_key($Media,"Media")->get_row_by_key(join(",",@{$KOList}),"KOlist");
	for (my $j=0; $j < $ProblemReport->size(); $j++) {
		if ($ProblemReport->get_row($j)->{"Notes"}->[0] =~ m/^Recursive\sMILP\s([^)]+)/) {
			my @SolutionList = split(/\|/,$1);
			for (my $k=0; $k < @SolutionList; $k++) {
				if ($SolutionList[$k] =~ m/(\d+):(.+)/) {
					push(@{$solutionRow->{Solutions}},$2);
					push(@{$solutions},$2);
				}
			}
		}
	}
	$self->figmodel()->database()->save_table($tbl);
	$self->releaseModelLock();
	
	return $solutions;
}

=head3 datagapfill
Definition:
	success()/fail() = FIGMODELmodel->datagapfill();
Description:
	Run gapfilling on the input run specifications
=cut
sub datagapfill {
	my ($self,$GapFillingRunSpecs,$TansferFileSuffix) = @_;
	my $UniqueFilename = $self->figmodel()->filename();
	if (defined($GapFillingRunSpecs) && @{$GapFillingRunSpecs} > 0) {
		system($self->figmodel()->GenerateMFAToolkitCommandLineCall($UniqueFilename,$self->id().$self->selected_version(),"NoBounds",["DataGapFilling"],{"Reactions to knockout" => $self->config("permanently knocked out reactions")->[0],"Gap filling runs" => join(";",@{$GapFillingRunSpecs})},"GapFilling-".$self->id().$self->selected_version()."-".$UniqueFilename.".log",undef,undef));
		#Checking that the solution exists
		if (!-e $self->config("MFAToolkit output directory")->[0].$UniqueFilename."/GapFillingSolutionTable.txt") {
			$self->figmodel()->error_message("FIGMODEL:GapFillingAlgorithm: Could not find MFA output file!");
			$self->figmodel()->database()->print_array_to_file($self->directory().$self->id().$self->selected_version()."-GFS.txt",["Experiment;Solution index;Solution cost;Solution reactions"]);
			return undef;
		}
		my $GapFillResultTable = $self->figmodel()->database()->load_table($self->config("MFAToolkit output directory")->[0].$UniqueFilename."/GapFillingSolutionTable.txt",";","",0,undef);
		if (defined($TansferFileSuffix)) {
			system("cp ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/GapFillingSolutionTable.txt ".$self->directory().$self->id().$self->selected_version()."-".$TansferFileSuffix.".txt");
		}
		#If the system is not configured to preserve all logfiles, then the mfatoolkit output folder is deleted
		$self->figmodel()->clearing_output($UniqueFilename,"GapFilling-".$self->id().$self->selected_version()."-".$UniqueFilename.".log");
		return $GapFillResultTable;
	}
	if (defined($TansferFileSuffix)) {
		$self->figmodel()->database()->print_array_to_file($self->directory().$self->id().$self->selected_version()."-".$TansferFileSuffix.".txt",["Experiment;Solution index;Solution cost;Solution reactions"]);
	}
	return undef;
}

=head3 TestSolutions
Definition:
	$model->TestSolutions($ModelID,$NumProcessors,$ProcessorIndex,$GapFill);
Description:
Example:
=cut

sub TestSolutions {
	my ($self,$OriginalErrorFilename,$GapFillResultTable) = @_;
	#Getting the filename
	my $UniqueFilename = $self->figmodel()->filename();
	#Reading in the original error matrix which has the headings for the original model simulation
	my $OriginalErrorData;
	if (!defined($OriginalErrorFilename) || !-e $self->directory().$OriginalErrorFilename) {
		my ($FalsePostives,$FalseNegatives,$CorrectNegatives,$CorrectPositives,$Errorvector,$HeadingVector) = $self->RunAllStudiesWithDataFast("All");
		$OriginalErrorData = [$HeadingVector,$Errorvector];
	} else {
		$OriginalErrorData = $self->figmodel()->database()->load_single_column_file($self->directory().$OriginalErrorFilename,"");
	}
	my $HeadingHash;
	my @HeadingArray = split(/;/,$OriginalErrorData->[0]);
	my @OrigErrorArray = split(/;/,$OriginalErrorData->[1]);
	for (my $i=0; $i < @HeadingArray; $i++) {
		my @SubArray = split(/:/,$HeadingArray[$i]);
		$HeadingHash->{$SubArray[0].":".$SubArray[1].":".$SubArray[2]} = $i;
	}
	#Scanning through the gap filling solutions
	my $TempVersion = "V".$UniqueFilename;
	my $ErrorMatrixLines;
	for (my $i=0; $i < $GapFillResultTable->size(); $i++) {
		print "Starting problem solving ".$i."\n";
		my $ErrorLine = $GapFillResultTable->get_row($i)->{"Experiment"}->[0].";".$GapFillResultTable->get_row($i)->{"Solution index"}->[0].";".$GapFillResultTable->get_row($i)->{"Solution cost"}->[0].";".$GapFillResultTable->get_row($i)->{"Solution reactions"}->[0];
		#Integrating solution into test model
		my $ReactionArray;
		my $DirectionArray;
		my @ReactionList = split(/,/,$GapFillResultTable->get_row($i)->{"Solution reactions"}->[0]);
		my %SolutionHash;
		for (my $k=0; $k < @ReactionList; $k++) {
			if ($ReactionList[$k] =~ m/(.+)(rxn\d\d\d\d\d)/) {
				my $Reaction = $2;
				my $Sign = $1;
				if (defined($SolutionHash{$Reaction})) {
					$SolutionHash{$Reaction} = "<=>";
				} elsif ($Sign eq "-") {
					$SolutionHash{$Reaction} = "<=";
				} elsif ($Sign eq "+") {
					$SolutionHash{$Reaction} = "=>";
				} else {
					$SolutionHash{$Reaction} = $Sign;
				}
			}
		}
		@ReactionList = keys(%SolutionHash);
		for (my $k=0; $k < @ReactionList; $k++) {
			push(@{$ReactionArray},$ReactionList[$k]);
			push(@{$DirectionArray},$SolutionHash{$ReactionList[$k]});
		}
		print "Integrating solution!\n";
		$self->figmodel()->IntegrateGrowMatchSolution($self->id().$self->selected_version(),$self->directory().$self->id().$TempVersion.".txt",$ReactionArray,$DirectionArray,"Gapfilling ".$GapFillResultTable->get_row($i)->{"Experiment"}->[0],1,1);
		$self->PrintModelLPFile();
		#Running the model against all available experimental data
		print "Running test model!\n";
		my ($FalsePostives,$FalseNegatives,$CorrectNegatives,$CorrectPositives,$Errorvector,$HeadingVector) = $self->RunAllStudiesWithDataFast("All");

		@HeadingArray = split(/;/,$HeadingVector);
		my @ErrorArray = @OrigErrorArray;
		my @TempArray = split(/;/,$Errorvector);
		for (my $j=0; $j < @HeadingArray; $j++) {
			my @SubArray = split(/:/,$HeadingArray[$j]);
			$ErrorArray[$HeadingHash->{$SubArray[0].":".$SubArray[1].":".$SubArray[2]}] = $TempArray[$j];
		}
		$ErrorLine .= ";".$FalsePostives."/".$FalseNegatives.";".join(";",@ErrorArray);
		push(@{$ErrorMatrixLines},$ErrorLine);
		print "Finishing problem solving ".$i."\n";
	}
	#Clearing out the test model
	if (-e $self->directory().$self->id().$TempVersion.".txt") {
		unlink($self->directory().$self->id().$TempVersion.".txt");
		unlink($self->directory()."SimulationOutput".$self->id().$TempVersion.".txt");
	}
	return $ErrorMatrixLines;
}

=head3 status
Definition:
	int::model status = FIGMODELmodel->status();
Description:
	Returns the current status of the SEED model associated with the input genome ID.
	model status = 1: model exists
	model status = 0: model is being built
	model status = -1: model does not exist
	model status = -2: model build failed
=cut
sub status {
	my ($self) = @_;
	return $self->{_data}->{status}->[0];
}

=head3 message
Definition:
	string::model message = FIGMODELmodel->message();
Description:
	Returns a message associated with the models current status
=cut
sub message {
	my ($self) = @_;
	return $self->{_data}->{message}->[0];
}

=head3 set_status
Definition:
	(success/fail) = FIGMODELmodel->set_status(int::new status,string::status message);
Description:
	Changes the current status of the SEED model
	new status = 1: model exists
	new status = 0: model is being built
	new status = -1: model does not exist
	new status = -2: model build failed
=cut
sub set_status {
	my ($self,$NewStatus,$Message) = @_;

	#Getting the model row from the MODELS table
	$self->{_data}->{status}->[0] = $NewStatus;
	$self->{_data}->{message}->[0] = $Message;
	$self->figmodel()->database()->update_row("MODELS",$self->{_data},"id");
	return $self->config("SUCCESS")->[0];
}

=head3 CreateSingleGenomeReactionList
Definition:
	FIGMODEL->CreateSingleGenomeReactionList();
Description:
	This function uses fig calls to obtain a list of genes and functions for a genome, and it uses a file mapping reactions and functional roles to produce a reaction list.
Example:
=cut

sub CreateSingleGenomeReactionList {
	my ($self,$RunGapFilling) = @_;

	#Creating directory
	if ($self->owner() ne "master" && !-d $self->figmodel()->config("organism directory")->[0].$self->owner()."/") {
		system("mkdir ".$self->figmodel()->config("organism directory")->[0].$self->owner()."/");
	} elsif ($self->owner() eq "master" && !-d $self->figmodel()->config("organism directory")->[0].$self->genome()."/") {
		system("mkdir ".$self->figmodel()->config("organism directory")->[0].$self->genome()."/");
	}
	if ($self->owner() ne "master" && !-d $self->figmodel()->config("organism directory")->[0].$self->owner()."/".$self->genome()."/") {
		system("mkdir ".$self->figmodel()->config("organism directory")->[0].$self->owner()."/".$self->genome()."/");
	}

	#Getting genome stats
	my $genomestats = $self->figmodel()->get_genome_stats($self->genome());
	my $FeatureTable = $self->figmodel()->GetGenomeFeatureTable($self->genome());
	if (!defined($FeatureTable)) {
		$self->figmodel()->error_message("FIGMODEL:CreateSingleGenomeReactionList: ".$self->id()." genome features could not be accessed!");
		return $self->fail();
	}
	#Checking that the number of genes exceeds the minimum size
	if ($FeatureTable->size() < $self->config("minimum genome size for modeling")->[0]) {
		$self->figmodel()->error_message("FIGMODEL:CreateSingleGenomeReactionList: ".$self->id()." genome rejected as too small for modeling!");
		return $self->fail();
	}
	#Setting up needed variables
	my $OriginalModelTable = undef;
	#Locking model status table
	my $ModelTable = $self->figmodel()->database()->LockDBTable("MODELS");
	my $Row = $ModelTable->get_row_by_key($self->id(),"id");
	if (!defined($Row) || !defined($Row->{status}->[0])) {
		$self->figmodel()->database()->UnlockDBTable("MODELS");
		$self->figmodel()->error_message("FIGMODEL:CreateSingleGenomeReactionList: ".$self->id()." has no row in models table!");
		return $self->fail();
	} elsif ($Row->{status}->[0] == 0) {
		$self->figmodel()->error_message("FIGMODEL:CreateSingleGenomeReactionList:Model is already being built. Canceling current build.");
		$self->figmodel()->database()->UnlockDBTable("MODELS");
		return $self->fail();
	}elsif ($Row->{status}->[0] == 1) {
		$OriginalModelTable = $self->reaction_table();
		$self->ArchiveModel();
		$Row->{status}->[0] = 0;
		$Row->{message}->[0] = "Rebuilding preliminary reconstruction";
	} else {
		$Row->{status}->[0] = 0;
		$Row->{message}->[0] = "Preliminary reconstruction";
	}
	#Updating the status table
	$self->figmodel()->database()->save_table($ModelTable);
	$self->figmodel()->database()->UnlockDBTable("MODELS");
	#Sorting GenomeData by gene location on the chromosome
	$FeatureTable->sort_rows("MIN LOCATION");
	my ($ComplexHash,$SuggestedMappings,$UnrecognizedReactions,$ReactionHash);
	my %LastGenePosition;
	my $GeneRoles;
	for (my $j=0; $j < $FeatureTable->size(); $j++) {
		my $CurrentRow = $FeatureTable->get_row($j);
		#"ID","ALIASES","MIN LOCATION","MAX LOCATION","ROLES","SUBSYSTEMS","SUBSYSTEM CLASS"
		if (defined($CurrentRow)) {
			my $GeneID = $CurrentRow->{"ID"}->[0];
			if ($GeneID =~ m/(peg\.\d+)/) {
				$GeneID = $1;
			}
			foreach my $Role (@{$CurrentRow->{"ROLES"}}) {
				if ($self->figmodel()->role_is_valid($Role) != 0) {
					push(@{$GeneRoles->{$GeneID}},$Role);
					my $ReactionHashArrayRef = $self->figmodel()->reactions_of_role($Role);
					if ($ReactionHashArrayRef != 0) {
						foreach my $Mapping (@{$ReactionHashArrayRef}) {
							if (defined($Mapping->{"REACTION"}) && defined($Mapping->{"MASTER"}) && defined($Mapping->{"SUBSYSTEM"}) && defined($Mapping->{"SOURCE"})) {
								if ($Mapping->{"REACTION"}->[0] =~ m/rxn\d\d\d\d\d/) {
									if ($Mapping->{"MASTER"}->[0] eq 1) {
										#Creating a complex if consecutive genes have been assigned to the same reaction
										$ComplexHash->{$Mapping->{"REACTION"}->[0]}->{$Mapping->{"COMPLEX"}->[0]}->{$Role}->{$GeneID} = 1;
										if (!defined($LastGenePosition{$Mapping->{"REACTION"}->[0]})) {
											$LastGenePosition{$Mapping->{"REACTION"}->[0]} = $j;
											push(@{$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"GENES"}},$GeneID);
										} elsif (($j-$LastGenePosition{$Mapping->{"REACTION"}->[0]}) < 3 && $LastGenePosition{$Mapping->{"REACTION"}->[0]} != $j) {
											my $CurrentComplex = pop(@{$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"GENES"}});
											push(@{$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"GENES"}},$CurrentComplex."+".$GeneID);
										} elsif ($LastGenePosition{$Mapping->{"REACTION"}->[0]} != $j) {
											push(@{$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"GENES"}},$GeneID);
										}
										$LastGenePosition{$Mapping->{"REACTION"}->[0]} = $j;
										#Adding a subsystem for the reaction
										if ($self->figmodel()->subsystem_is_valid($Mapping->{"SUBSYSTEM"}->[0]) == 1) {
											($ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"SUBSYSTEMS"},my $NumMatches) = $self->figmodel()->add_elements_unique($ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"SUBSYSTEMS"},$Mapping->{"SUBSYSTEM"}->[0]);
											if (!defined($ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}) || $ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}->[0] > 1) {
												if ($Mapping->{"SOURCE"}->[0] =~ m/Hope\sFiles/) {
													$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}->[0] = 1;
												} elsif ($Mapping->{"SOURCE"}->[0] =~ m/SEED/) {
													$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}->[0] = 2;
												} elsif (!defined($ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}) || $ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}->[0] > 2) {
													$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}->[0] = 3;
												}
											}
										}
										#Handling confidence
										if (!defined($ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}) || $ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}->[0] > 2) {
											if ($Mapping->{"SOURCE"}->[0] =~ m/MATT/) {
												$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}->[0] = 3;
											} elsif ($Mapping->{"SOURCE"}->[0] =~ m/CHRIS/) {
												$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}->[0] = 4;
											} else {
												$ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"CONFIDENCE"}->[0] = 5;
											}
										}
										#Parsing sources
										($ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"SOURCE"},my $NumMatches) = $self->figmodel()->add_elements_unique($ReactionHash->{$Mapping->{"REACTION"}->[0]}->{"SOURCE"},split(/\|/,$Mapping->{"SOURCE"}->[0]));
									} else {
										push(@{$SuggestedMappings},$GeneID."\t".$Mapping->{"REACTION"}->[0]."\t".$Role);
									}
								} else {
									push(@{$UnrecognizedReactions},$GeneID."\t".$Mapping->{"REACTION"}->[0]."\t".$Role);
								}
							}
						}
					}
				}
			}
		}
	}

	#Creating nonadjacent complexes
	my @ReactionList = keys(%{$ReactionHash});
	foreach my $Reaction (@ReactionList) {
		#If multiple genes are assigned to the reaction, we check if they should should be in a complex
		if (@{$ReactionHash->{$Reaction}->{"GENES"}} > 0 && defined($ComplexHash->{$Reaction})) {
			my $GeneArray;
			foreach my $Complex (keys(%{$ComplexHash->{$Reaction}})) {
				my %ComplexComponents;
				foreach my $CurrentGeneSet (@{$ReactionHash->{$Reaction}->{"GENES"}}) {
					my @GeneList = split(/\+/,$CurrentGeneSet);
					my %RoleHash;
					foreach my $Gene (@GeneList) {
						foreach my $Role (@{$GeneRoles->{$Gene}}) {
							if (defined($ComplexHash->{$Reaction}->{$Complex}->{$Role})) {
								$RoleHash{$Role} = 1;
							}
						}
					}
					if (keys(%RoleHash) > 0) {
						if (!defined($ComplexComponents{join("|",sort(keys(%RoleHash)))})) {
							my @RoleList = keys(%RoleHash);
							my @ComplexList = keys(%ComplexComponents);
							foreach my $ComplexSet (@ComplexList) {
								my @RoleList = split(/\|/,$ComplexSet);
								my $Match = 0;
								foreach my $SingleRole (@RoleList) {
									if (defined($RoleHash{$SingleRole})) {
										$Match = 1;
										last;
									}
								}
								if ($Match == 1) {
									foreach my $SingleRole (@RoleList) {
										$RoleHash{$SingleRole} = 1
									}
									push(@{$ComplexComponents{join("|",sort(keys(%RoleHash)))}},@{$ComplexComponents{$ComplexSet}});
									delete $ComplexComponents{$ComplexSet};
								}
							}
						}
						push(@{$ComplexComponents{join("|",sort(keys(%RoleHash)))}},$CurrentGeneSet);
					}
				}
				my @Position;
				my @Options;
				my $Count = 0;
				foreach my $RoleSet (keys(%ComplexComponents)) {
					push(@Position,0);
					push(@{$Options[$Count]},@{$ComplexComponents{$RoleSet}});
					$Count++;
				}
				my $Done = 0;
				$Count = 0;
				my $NewRelationship;
				while($Done == 0) {
					#Creating complex with current indecies
					$NewRelationship->[$Count] = $Options[0]->[$Position[0]];
					for (my $i=1; $i < @Position; $i++) {
						$NewRelationship->[$Count] .= "+".$Options[$i]->[$Position[$i]];
					}
					$NewRelationship->[$Count] = join("+",$self->figmodel()->remove_duplicates(split(/\+/,$NewRelationship->[$Count])));
					$Count++;
					#Iterating indecies
					my $CurrentIndex = 0;
					while($CurrentIndex >= 0) {
						if ($CurrentIndex >= @Position) {
							$CurrentIndex = -1000;
						} elsif ($Position[$CurrentIndex]+1 == @{$Options[$CurrentIndex]}) {
							$Position[$CurrentIndex] = -1;
							$CurrentIndex++;
						} else {
							$Position[$CurrentIndex]++;
							$CurrentIndex--;
						}
					}
					if ($CurrentIndex == -1000) {
						$Done = 1;
					}
				}
				push(@{$GeneArray},@{$NewRelationship});
			}
			@{$ReactionHash->{$Reaction}->{"GENES"}} = $self->figmodel()->remove_duplicates(@{$GeneArray});
		}
	}

	#Getting the reaction table
	my $ReactionTable = $self->figmodel()->database()->GetDBTable("REACTIONS");

	#Creating the model reaction table
	my $NewModelTable = FIGMODELTable->new(["LOAD","DIRECTIONALITY","COMPARTMENT","ASSOCIATED PEG","SUBSYSTEM","CONFIDENCE","REFERENCE","NOTES"],$self->directory().$self->id().".txt",["LOAD"],";","|","REACTIONS\n");
	@ReactionList = keys(%{$ReactionHash});
	foreach my $ReactionID (@ReactionList) {
		#Getting the thermodynamic reversibility from the database
		my $Directionality = $self->figmodel()->reversibility_of_reaction($ReactionID);
		my $Subsystem = "NONE";
		if (defined($ReactionHash->{$ReactionID}->{"SUBSYSTEMS"})) {
			$Subsystem = join("|",@{$ReactionHash->{$ReactionID}->{"SUBSYSTEMS"}});
		}
		my $Source = "NONE";
		if (defined($ReactionHash->{$ReactionID}->{"SOURCE"})) {
			$Source = join("|",@{$ReactionHash->{$ReactionID}->{"SOURCE"}});
		}
		$NewModelTable->add_row({"LOAD" => [$ReactionID],"DIRECTIONALITY" => [$Directionality],"COMPARTMENT" => ["c"],"ASSOCIATED PEG" => [join("|",@{$ReactionHash->{$ReactionID}->{"GENES"}})],"SUBSYSTEM" => [$Subsystem],"CONFIDENCE" => [$ReactionHash->{$ReactionID}->{"CONFIDENCE"}->[0]],"REFERENCE" => [$Source],"NOTES" => ["NONE"]});
	}

	#Adding the spontaneous and universal reactions
	foreach my $ReactionID (@{$self->config("spontaneous reactions")}) {
		#Getting the thermodynamic reversibility from the database
		my $Directionality = $self->figmodel()->reversibility_of_reaction($ReactionID);
		#Checking if the reaction is already in the model
		if (!defined($NewModelTable->get_row_by_key($ReactionID,"LOAD"))) {
			$NewModelTable->add_row({"LOAD" => [$ReactionID],"DIRECTIONALITY" => [$Directionality],"COMPARTMENT" => ["c"],"ASSOCIATED PEG" => ["SPONTANEOUS"],"SUBSYSTEM" => ["NONE"],"CONFIDENCE" => [4],"REFERENCE" => ["SPONTANEOUS"],"NOTES" => ["NONE"]});
		}
	}
	foreach my $ReactionID (@{$self->config("universal reactions")}) {
		#Getting the thermodynamic reversibility from the database
		my $Directionality = $self->figmodel()->reversibility_of_reaction($ReactionID);
		#Checking if the reaction is already in the model
		if (!defined($NewModelTable->get_row_by_key($ReactionID,"LOAD"))) {
			$NewModelTable->add_row({"LOAD" => [$ReactionID],"DIRECTIONALITY" => [$Directionality],"COMPARTMENT" => ["c"],"ASSOCIATED PEG" => ["UNIVERSAL"],"SUBSYSTEM" => ["NONE"],"CONFIDENCE" => [4],"REFERENCE" => ["UNIVERSAL"],"NOTES" => ["NONE"]});
		}
	}

	#Checking if a biomass reaction already exists
	my $BiomassReactionRow = $self->BuildSpecificBiomassReaction();
	if (!defined($BiomassReactionRow)) {
		$self->set_status(-2,"Preliminary reconstruction failed: could not generate biomass reaction");
		$self->figmodel()->error_message("FIGMODEL:CreateModelReactionList: Could not generate biomass function for ".$self->id()."!");
		return $self->fail();
	}
	my $ReactionList = $BiomassReactionRow->{"ESSENTIAL REACTIONS"};
	push(@{$ReactionList},$BiomassReactionRow->{DATABASE}->[0]);

	#Adding biomass reactions to the model table
	foreach my $BOFReaction (@{$ReactionList}) {
		#Getting the thermodynamic reversibility from the database
		my $Directionality = $self->figmodel()->reversibility_of_reaction($BOFReaction);
		#Checking if the reaction is already in the model
		if (!defined($NewModelTable->get_row_by_key($BOFReaction,"LOAD"))) {
			if ($BOFReaction =~ m/bio/) {
				$NewModelTable->add_row({"LOAD" => [$BOFReaction],"DIRECTIONALITY" => [$Directionality],"COMPARTMENT" => ["c"],"ASSOCIATED PEG" => ["BOF"],"SUBSYSTEM" => ["NONE"],"CONFIDENCE" => [1],"REFERENCE" => ["Biomass objective function"],"NOTES" => ["NONE"]});
			} else {
				$NewModelTable->add_row({"LOAD" => [$BOFReaction],"DIRECTIONALITY" => [$Directionality],"COMPARTMENT" => ["c"],"ASSOCIATED PEG" => ["INITIAL GAP FILLING"],"SUBSYSTEM" => ["NONE"],"CONFIDENCE" => [5],"REFERENCE" => ["Initial gap filling"],"NOTES" => ["NONE"]});
			}
		}
	}

	#Completing any incomplete reactions sets
	my $ReactionSetTable = $self->figmodel()->database()->GetDBTable("REACTION SETS");
	for (my $i=0; $i < $ReactionSetTable->size(); $i++) {
		if (defined($NewModelTable->get_row_by_key($ReactionSetTable->get_row($i)->{"Trigger reaction"}->[0],"LOAD"))) {
			foreach my $Reaction (@{$ReactionSetTable->get_row($i)->{"Dependant reactions"}}) {
				if (!defined($NewModelTable->get_row_by_key($ReactionSetTable->get_row($i)->{"Trigger reaction"}->[0],"LOAD"))) {
					#Getting the thermodynamic reversibility from the database
					my $Directionality = $self->figmodel()->reversibility_of_reaction($Reaction);
					$NewModelTable->add_row({"LOAD" => [$Reaction],"DIRECTIONALITY" => [$Directionality],"COMPARTMENT" => ["c"],"ASSOCIATED PEG" => ["REACTION SET GAP FILLING"],"SUBSYSTEM" => ["NONE"],"CONFIDENCE" => [5],"REFERENCE" => ["Added due to presence of ".$ReactionSetTable->get_row($i)->{"Trigger reaction"}->[0]],"NOTES" => ["NONE"]});
				}
			}
		}
	}

	#Now we compare the model to the previous model to determine if any differences exist that aren't gap filling reactions
	if (defined($OriginalModelTable)) {
		my $PerfectMatch = 1;
		my $ReactionCount = 0;
		for (my $i=0; $i < $OriginalModelTable->size(); $i++) {
			#We only check that nongapfilling reactions exist in the new model
			if ($OriginalModelTable->get_row($i)->{"ASSOCIATED PEG"}->[0] !~ m/GAP/ || $OriginalModelTable->get_row($i)->{"ASSOCIATED PEG"}->[0] eq "INITIAL GAP FILLING") {
				$ReactionCount++;
				my $Row = $NewModelTable->get_row_by_key($OriginalModelTable->get_row($i)->{"LOAD"}->[0],"LOAD");
				if (defined($Row)) {
					#We check that the reaction directionality is identical
					if ($Row->{"DIRECTIONALITY"}->[0] ne $OriginalModelTable->get_row($i)->{"DIRECTIONALITY"}->[0]) {
						if (defined($OriginalModelTable->get_row($i)->{"NOTES"}->[0]) && $OriginalModelTable->get_row($i)->{"NOTES"}->[0] =~ m/Directionality\sswitched\sfrom\s([^\s])/) {
							if ($1 ne $Row->{"DIRECTIONALITY"}->[0]) {
								print "Directionality mismatch for reaction ".$OriginalModelTable->get_row($i)->{"LOAD"}->[0].": ".$1." vs ".$Row->{"DIRECTIONALITY"}->[0]."\n";
								$PerfectMatch = 0;
								last;
							}
						} else {
							print "Directionality mismatch for reaction ".$OriginalModelTable->get_row($i)->{"LOAD"}->[0].": ".$OriginalModelTable->get_row($i)->{"DIRECTIONALITY"}->[0]." vs ".$Row->{"DIRECTIONALITY"}->[0]."\n";
							$PerfectMatch = 0;
							last;
						}
					}
					#We check that the genes assigned to the reaction are identical
					if ($PerfectMatch == 1 && @{$OriginalModelTable->get_row($i)->{"ASSOCIATED PEG"}} != @{$Row->{"ASSOCIATED PEG"}}) {
						print "Gene associatation mismatch for reaction ".$OriginalModelTable->get_row($i)->{"LOAD"}->[0].": ".@{$OriginalModelTable->get_row($i)->{"ASSOCIATED PEG"}}." vs ".@{$Row->{"ASSOCIATED PEG"}}."\n";
						$PerfectMatch = 0;
						last;
					}
					if ($PerfectMatch == 1) {
						my @GeneSetOne = sort(@{$OriginalModelTable->get_row($i)->{"ASSOCIATED PEG"}});
						my @GeneSetTwo = sort(@{$Row->{"ASSOCIATED PEG"}});
						for (my $j=0; $j < @GeneSetOne; $j++) {
							if ($GeneSetOne[$j] ne $GeneSetTwo[$j]) {
								print "Gene mismatch for reaction ".$OriginalModelTable->get_row($i)->{"LOAD"}->[0].": ".$GeneSetOne[$j]." vs ".$GeneSetTwo[$j]."\n";
								$PerfectMatch = 0;
								$i = $OriginalModelTable->size();
								last;
							}
						}
					}
				} else {
					print "Original model contains an extra reaction:".$OriginalModelTable->get_row($i)->{"LOAD"}->[0]."\n";
					$PerfectMatch = 0;
					last;
				}
			}
		}
		if ($PerfectMatch == 1 && $ReactionCount == $NewModelTable->size()) {
			#Bailing out of function as the model has not changed
			$self->set_status(1,"rebuild canceled because model has not changed");
			return $self->success();
		}
	}

	#Saving the new model to file
	$self->set_status(1,"Preliminary reconstruction complete");
	$self->figmodel()->database()->save_table($NewModelTable);
	$self->{_reaction_data} = $NewModelTable;
	#Clearing the previous model from the cache
	$self->figmodel()->database()->ClearDBModel($self->id(),1);
	#Updating the model stats table
	$self->update_stats_for_build();
	$self->PrintSBMLFile();

	#Adding model to gapfilling queue
	if (defined($RunGapFilling) && $RunGapFilling == 1) {
		$self->set_status(1,"Autocompletion queued");
		$self->figmodel()->add_job_to_queue("gapfillmodel?".$self->id(),"QSUB","cplex",$self->owner(),"BACK");
	}
	return $self->success();
}

=head3 CreateMetaGenomeReactionList
Definition:
	(success/fail) = FIGMODELmodel->CreateMetaGenomeReactionList();
Description:
	This is the code called to create or update the reaction list for a metgenome model
=cut

sub CreateMetaGenomeReactionList {
	my ($self) = @_;

	#Checking if the metagenome file exists
	if (!-e $self->config("raw MGRAST directory")->[0].$self->genome().".summary") {
		$self->error_message("FIGMODEL:CreateMetaGenomeReactionList: could not find raw data file for metagenome ".$self->genome());
	}
	#Loading metagenome data
	my $MGRASTData = $self->figmodel()->database()->load_multiple_column_file($self->config("raw MGRAST directory")->[0].$self->genome().".summary","\t");
	if (!defined($MGRASTData)) {
		$self->error_message("FIGMODEL:CreateMetaGenomeReactionList: could not find raw data file for metagenome ".$self->genome());
	}

	#Setting up needed variables
	my $OriginalModelTable = undef;

	#Checking status
	if ($self->status() < 0) {
		$self->set_status(0,"Preliminary reconstruction");
	} elsif ($self->status() == 0) {
		$self->error_message("FIGMODEL->CreateModelReactionList:Model is already being built. Canceling current build.");
		return $self->fail();
	} else {
		$OriginalModelTable = $self->reaction_table();
		$self->ArchiveModel();
		$self->set_status(0,"Rebuilding preliminary reconstruction");
	}

	#Getting the reaction table
	my $ReactionTable = $self->figmodel()->database()->GetDBTable("REACTIONS");
	#Creating model table
	my $ModelTable = FIGMODELTable->new(["LOAD","DIRECTIONALITY","COMPARTMENT","ASSOCIATED PEG","SUBSYSTEM","CONFIDENCE","REFERENCE","NOTES"],$self->directory().$self->id().".txt",["LOAD"],";","|","REACTIONS\n");
	for (my $i=0; $i < @{$MGRASTData};$i++) {
		#MD5,PEG,number of sims,role,sim e-scores
		my $Role = $MGRASTData->[$i]->[3];
		my $MD5 = $MGRASTData->[$i]->[0];
		my $peg = $MGRASTData->[$i]->[1];
		my $sims = $MGRASTData->[$i]->[4];
		$sims =~ s/;/,/g;

		#Checking for subsystems
		my $GeneSubsystems = $self->figmodel()->subsystems_of_role($Role);
		#Checking if there are reactions associated with this role
		my $ReactionHashArrayRef = $self->figmodel()->reactions_of_role($Role);
		if ($ReactionHashArrayRef != 0) {
			foreach my $Mapping (@{$ReactionHashArrayRef}) {
				if (defined($Mapping->{"REACTION"}) && defined($Mapping->{"MASTER"}) && defined($Mapping->{"SUBSYSTEM"}) && defined($Mapping->{"SOURCE"})) {
					if ($Mapping->{"REACTION"}->[0] =~ m/rxn\d\d\d\d\d/) {
						if ($Mapping->{"MASTER"}->[0] eq 1) {
							#Checking if the reaction is already in the model
							my $ReactionRow = $ModelTable->get_row_by_key($Mapping->{"REACTION"}->[0],"LOAD");
							if (!defined($ReactionRow)) {
								$ReactionRow = {"LOAD" => [$Mapping->{"REACTION"}->[0]],"DIRECTIONALITY" => [$self->figmodel()->reversibility_of_reaction($Mapping->{"REACTION"}->[0])],"COMPARTMENT" => ["c"]};
								$ModelTable->add_row($ReactionRow);
							}
							push(@{$ReactionRow->{"ASSOCIATED PEG"}},substr($peg,4));
							push(@{$ReactionRow->{"REFERENCE"}},$MD5.":".$Role);
							push(@{$ReactionRow->{"CONFIDENCE"}},$sims);
							if (defined($GeneSubsystems)) {
								push(@{$ReactionRow->{"SUBSYSTEM"}},@{$GeneSubsystems});
							}
						}
					}
				}
			}
		}
	}

	#Adding the spontaneous and universal reactions
	foreach my $ReactionID (@{$self->config("spontaneous reactions")}) {
		#Getting the thermodynamic reversibility from the database
		my $Directionality = $self->figmodel()->reversibility_of_reaction($ReactionID);
		#Checking if the reaction is already in the model
		if (!defined($ModelTable->get_row_by_key($ReactionID,"LOAD"))) {
			$ModelTable->add_row({"LOAD" => [$ReactionID],"DIRECTIONALITY" => [$Directionality],"COMPARTMENT" => ["c"],"ASSOCIATED PEG" => ["SPONTANEOUS"],"SUBSYSTEM" => ["NONE"],"CONFIDENCE" => [4],"REFERENCE" => ["SPONTANEOUS"],"NOTES" => ["NONE"]});
		}
	}
	foreach my $ReactionID (@{$self->config("universal reactions")}) {
		#Getting the thermodynamic reversibility from the database
		my $Directionality = $self->figmodel()->reversibility_of_reaction($ReactionID);
		#Checking if the reaction is already in the model
		if (!defined($ModelTable->get_row_by_key($ReactionID,"LOAD"))) {
			$ModelTable->add_row({"LOAD" => [$ReactionID],"DIRECTIONALITY" => [$Directionality],"COMPARTMENT" => ["c"],"ASSOCIATED PEG" => ["UNIVERSAL"],"SUBSYSTEM" => ["NONE"],"CONFIDENCE" => [4],"REFERENCE" => ["UNIVERSAL"],"NOTES" => ["NONE"]});
		}
	}

	#Completing any incomplete reactions sets
	my $ReactionSetTable = $self->figmodel()->database()->GetDBTable("REACTION SETS");
	for (my $i=0; $i < $ReactionSetTable->size(); $i++) {
		if (defined($ModelTable->get_row_by_key($ReactionSetTable->get_row($i)->{"Trigger reaction"}->[0],"LOAD"))) {
			foreach my $Reaction (@{$ReactionSetTable->get_row($i)->{"Dependant reactions"}}) {
				if (!defined($ModelTable->get_row_by_key($ReactionSetTable->get_row($i)->{"Trigger reaction"}->[0],"LOAD"))) {
					#Getting the thermodynamic reversibility from the database
					my $Directionality = $self->figmodel()->reversibility_of_reaction($Reaction);
					$ModelTable->add_row({"LOAD" => [$Reaction],"DIRECTIONALITY" => [$Directionality],"COMPARTMENT" => ["c"],"ASSOCIATED PEG" => ["REACTION SET GAP FILLING"],"SUBSYSTEM" => ["NONE"],"CONFIDENCE" => [5],"REFERENCE" => ["Added due to presence of ".$ReactionSetTable->get_row($i)->{"Trigger reaction"}->[0]],"NOTES" => ["NONE"]});
				}
			}
		}
	}

	#Clearing the previous model from the cache
	$self->figmodel()->database()->ClearDBModel($self->id(),1);
	$ModelTable->save();

	return $self->success();
}

=head3 ArchiveModel
Definition:
	(success/fail) = FIGMODELmodel->ArchiveModel();
Description:
	This function archives the specified model in the model directory with the current version numbers appended.
	This function is used to preserve old versions of models prior to overwriting so new versions may be compared with old versions.
=cut
sub ArchiveModel {
	my ($self) = @_;

	#Checking that the model file exists
	if (!(-e $self->filename())) {
		$self->figmodel()->error_message("FIGMODEL:ArchiveModel: Model file ".$self->filename()." not found!");
		return $self->fail();
	}

	#Copying the model file
	system("cp ".$self->filename()." ".$self->directory().$self->id().$self->version().".txt");
}

=head3 PrintModelDataToFile
Definition:
	(success/fail) = FIGMODELmodel->PrintModelDataToFile();
Description:
	This function uses the MFAToolkit to print out all of the compound and reaction data for the input model.
	Some of the data printed by the toolkit is calculated internally in the toolkit and not stored in any files, so this data can only be retrieved through this
	function. The LoadModel function for example would not give you this data.
=cut
sub PrintModelDataToFile {
	my($self) = @_;

	#Running the MFAToolkit on the model file
	my $OutputIndex = $self->figmodel()->filename();
	my $Command = $self->config("MFAToolkit executable")->[0]." parameterfile ../Parameters/Printing.txt resetparameter output_folder ".$OutputIndex.'/ LoadCentralSystem "'.$self->filename().'"';
	system($Command);

	#Copying the model file printed by the toolkit out of the output directory and into the model directory
	if (!-e $self->config("MFAToolkit output directory")->[0].$OutputIndex."/".$self->id().$self->selected_version().".txt") {
		$self->figmodel()->error_message("New model file not created due to an error. Check that the input modelfile exists.");
		$self->figmodel()->cleardirectory($OutputIndex);
		return $self->fail();
	}

	$Command = 'cp "'.$self->config("MFAToolkit output directory")->[0].$OutputIndex."/".$self->id().$self->selected_version().'.txt" "'.$self->directory().$self->id().$self->selected_version().'Data.txt"';
	system($Command);
	$Command = 'cp "'.$self->config("MFAToolkit output directory")->[0].$OutputIndex.'/ErrorLog0.txt" "'.$self->directory().'ModelErrors.txt"';
	system($Command);
	$self->figmodel()->cleardirectory($OutputIndex);
	return $self->success();
}

=head2 Analysis Functions

=head3 run_microarray_analysis
Definition:
	int::status = FIGMODEL->run_microarray_analysis(string::media,string::job id,string::gene calls);
Description:
	Runs microarray analysis attempting to turn off genes that are inactive in the microarray
=cut
sub run_microarray_analysis {
	my ($self,$media,$label,$index,$genecall) = @_;
	$genecall =~ s/_/:/g;
	$genecall =~ s/\//;/g;
	my $uniqueFilename = $self->figmodel()->filename();
	my $command = $self->figmodel()->GenerateMFAToolkitCommandLineCall($uniqueFilename,$self->id(),$media,["ProductionMFA","ShewenellaExperiment"],{"Microarray assertions" => $label.";".$index.";".$genecall,"MFASolver" => "CPLEX","Network output location" => "/scratch/"},"MicroarrayAnalysis-".$uniqueFilename.".txt",undef,$self->selected_version());
	system($command);
	my $filename = $self->figmodel()->config("MFAToolkit output directory")->[0].$uniqueFilename."/MicroarrayOutput-".$index.".txt";
    if (-e $filename) {
    	my $output = $self->figmodel()->database()->load_single_column_file($filename);
    	if (defined($output->[0])) {
    		my @array = split(/;/,$output->[0]);
    		$self->figmodel()->clearing_output($uniqueFilename,"MicroarrayAnalysis-".$uniqueFilename.".txt");
    		return ($array[0],$array[1],$array[8].":".$array[2],$array[9].":".$array[3],$array[10].":".$array[4],$array[11].":".$array[5],$array[12].":".$array[6],$array[13].":".$array[7]);	
    	}
    	print STDERR $filename." is empty!";
    }
    print STDERR $filename." not found!";
    $self->figmodel()->clearing_output($uniqueFilename,"MicroarrayAnalysis-".$uniqueFilename.".txt");
    
	return undef;
}

=head3 find_minimal_pathways
Definition:
	int::status = FIGMODEL->find_minimal_pathways(string::media,string::objective);
Description:
	Runs microarray analysis attempting to turn off genes that are inactive in the microarray
=cut
sub find_minimal_pathways {
	my ($self,$media,$objective,$solutionnum,$AllReversible,$additionalexchange) = @_;

	#Setting default media
	if (!defined($media)) {
		$media = "Complete";
	}

	#Setting default solution number
	if (!defined($solutionnum)) {
		$solutionnum = "5";
	}

	#Setting additional exchange fluxes
	if (!defined($additionalexchange) || length($additionalexchange) == 0) {
		if ($self->id() eq "iAF1260") {
			$additionalexchange = "cpd03422[c]:-100:100;cpd01997[c]:-100:100;cpd11416[c]:-100:0;cpd15378[c]:-100:0;cpd15486[c]:-100:0";
		} else {
			$additionalexchange = $self->figmodel()->config("default exchange fluxes")->[0];
		}
	}

	#Translating objective
	my $objectivestring;
	if ($objective eq "ALL") {
		#Getting the list of universal building blocks
		my $buildingblocks = $self->config("universal building blocks");
		my @objectives = keys(%{$buildingblocks});
		#Getting the nonuniversal building blocks
		my $otherbuildingblocks = $self->config("nonuniversal building blocks");
		my @array = keys(%{$otherbuildingblocks});
		if (defined($self->get_biomass()) && defined($self->figmodel()->get_reaction($self->get_biomass()->{"LOAD"}->[0]))) {
			my $equation = $self->figmodel()->get_reaction($self->get_biomass()->{"LOAD"}->[0])->{"EQUATION"}->[0];
			if (defined($equation)) {
				for (my $i=0; $i < @array; $i++) {
					if (CORE::index($equation,$array[$i]) > 0) {
						push(@objectives,$array[$i]);
					}
				}
			}
		}
		for (my $i=0; $i < @objectives; $i++) {
			$self->find_minimal_pathways($media,$objectives[$i]);
		}
		return;
	} elsif ($objective eq "ENERGY") {
		$objectivestring = "MAX;FLUX;rxn00062;c;1";
	} elsif ($objective =~ m/cpd\d\d\d\d\d/) {
		if ($objective =~ m/\[(\w)\]/) {
			$objectivestring = "MIN;DRAIN_FLUX;".$objective.";".$1.";1";
			$additionalexchange .= ";".$objective."[".$1."]:-100:0";
		} else {
			$objectivestring = "MIN;DRAIN_FLUX;".$objective.";c;1";
			$additionalexchange .= ";".$objective."[c]:-100:0";
		}
	} elsif ($objective =~ m/(rxn\d\d\d\d\d)/) {
		my ($Reactants,$Products) = $self->figmodel()->GetReactionSubstrateData($objective);
		for (my $i=0; $i < @{$Products};$i++) {
			my $temp = $Products->[$i]->{"DATABASE"}->[0];
			if ($additionalexchange !~ m/$temp/) {
				#$additionalexchange .= ";".$temp."[c]:-100:0";
			}
		}
		for (my $i=0; $i < @{$Reactants};$i++) {
			print $Reactants->[$i]->{"DATABASE"}->[0]." started\n";
			$self->find_minimal_pathways($media,$Reactants->[$i]->{"DATABASE"}->[0],$additionalexchange);
			print $Reactants->[$i]->{"DATABASE"}->[0]." done\n";
		}
		return;
	}

	#Adding additional drains
	if (($objective eq "cpd15665" || $objective eq "cpd15667" || $objective eq "cpd15668" || $objective eq "cpd15669") && $additionalexchange !~ m/cpd15666/) {
		$additionalexchange .= ";cpd15666[c]:0:100";
	} elsif ($objective eq "cpd11493" && $additionalexchange !~ m/cpd12370/) {
		$additionalexchange .= ";cpd12370[c]:0:100";
	} elsif ($objective eq "cpd00166" && $additionalexchange !~ m/cpd01997/) {
		$additionalexchange .= ";cpd01997[c]:0:100;cpd03422[c]:0:100";
	}

	#Running MFAToolkit
	my $filename = $self->figmodel()->filename();
	my $command;
	if (defined($AllReversible) && $AllReversible == 1) {
		$command = $self->figmodel()->GenerateMFAToolkitCommandLineCall($filename,$self->id(),$media,["ProductionMFA"],{"Make all reactions reversible in MFA"=>1, "Recursive MILP solution limit" => $solutionnum,"Generate pathways to objective" => 1,"MFASolver" => "CPLEX","objective" => $objectivestring,"exchange species" => $additionalexchange},"MinimalPathways-".$media."-".$self->id().$self->selected_version().".txt",undef,$self->selected_version());
	} else {
		$command = $self->figmodel()->GenerateMFAToolkitCommandLineCall($filename,$self->id(),$media,["ProductionMFA"],{"Make all reactions reversible in MFA"=>0, "Recursive MILP solution limit" => $solutionnum,"Generate pathways to objective" => 1,"MFASolver" => "CPLEX","objective" => $objectivestring,"exchange species" => $additionalexchange},"MinimalPathways-".$media."-".$self->id().$self->selected_version().".txt",undef,$self->selected_version());
	}
	system($command);

	#Loading problem report
	my $results = $self->figmodel()->LoadProblemReport($filename);
	#Clearing output
	$self->figmodel()->clearing_output($filename,"MinimalPathways-".$media."-".$self->id()."-".$objective.".txt");
	if (!defined($results)) {
		print STDERR $objective." pathway results not found!\n";
		return;
	}

	#Parsing output
	my @Array;
	my $row = $results->get_row(1);
	if (defined($row->{"Notes"}->[0])) {
		$_ = $row->{"Notes"}->[0];
		@Array = /\d+:([^\|]+)\|/g;
	}
	
	#Writing output to file
	$self->figmodel()->database()->print_array_to_file($self->directory()."MinimalPathways-".$media."-".$objective."-".$self->id()."-".$AllReversible."-".$self->selected_version().".txt",[join("|",@Array)]);
}

=head3 find_minimal_pathways
Definition:
	int::status = FIGMODEL->find_minimal_pathways(string::media,string::objective);
Description:
	Runs microarray analysis attempting to turn off genes that are inactive in the microarray
=cut
sub find_minimal_pathways_two {
	my ($self,$media,$objective,$solutionnum,$AllReversible,$additionalexchange) = @_;

	#Setting default media
	if (!defined($media)) {
		$media = "Complete";
	}

	#Setting default solution number
	if (!defined($solutionnum)) {
		$solutionnum = "5";
	}

	#Setting additional exchange fluxes
	if (!defined($additionalexchange) || length($additionalexchange) == 0) {
		if ($self->id() eq "iAF1260") {
			$additionalexchange = "cpd03422[c]:-100:100;cpd01997[c]:-100:100;cpd11416[c]:-100:0;cpd15378[c]:-100:0;cpd15486[c]:-100:0";
		} else {
			$additionalexchange = $self->figmodel()->config("default exchange fluxes")->[0];
		}
	}

	#Translating objective
	my $objectivestring;
	if ($objective eq "ALL") {
		#Getting the list of universal building blocks
		my $buildingblocks = $self->config("universal building blocks");
		my @objectives = keys(%{$buildingblocks});
		#Getting the nonuniversal building blocks
		my $otherbuildingblocks = $self->config("nonuniversal building blocks");
		my @array = keys(%{$otherbuildingblocks});
		if (defined($self->get_biomass()) && defined($self->figmodel()->get_reaction($self->get_biomass()->{"LOAD"}->[0]))) {
			my $equation = $self->figmodel()->get_reaction($self->get_biomass()->{"LOAD"}->[0])->{"EQUATION"}->[0];
			if (defined($equation)) {
				for (my $i=0; $i < @array; $i++) {
					if (CORE::index($equation,$array[$i]) > 0) {
						push(@objectives,$array[$i]);
					}
				}
			}
		}
		for (my $i=0; $i < @objectives; $i++) {
			$self->find_minimal_pathways($media,$objectives[$i]);
		}
		return;
	} elsif ($objective eq "ENERGY") {
		$objectivestring = "MAX;FLUX;rxn00062;c;1";
	} elsif ($objective =~ m/cpd\d\d\d\d\d/) {
		if ($objective =~ m/\[(\w)\]/) {
			$objectivestring = "MIN;DRAIN_FLUX;".$objective.";".$1.";1";
			$additionalexchange .= ";".$objective."[".$1."]:-100:0";
		} else {
			$objectivestring = "MIN;DRAIN_FLUX;".$objective.";c;1";
			$additionalexchange .= ";".$objective."[c]:-100:0";
		}
	} elsif ($objective =~ m/(rxn\d\d\d\d\d)/) {
		my ($Reactants,$Products) = $self->figmodel()->GetReactionSubstrateData($objective);
		for (my $i=0; $i < @{$Products};$i++) {
			my $temp = $Products->[$i]->{"DATABASE"}->[0];
			if ($additionalexchange !~ m/$temp/) {
				#$additionalexchange .= ";".$temp."[c]:-100:0";
			}
		}
		for (my $i=0; $i < @{$Reactants};$i++) {
			print $Reactants->[$i]->{"DATABASE"}->[0]." started\n";
			$self->find_minimal_pathways($media,$Reactants->[$i]->{"DATABASE"}->[0],$additionalexchange);
			print $Reactants->[$i]->{"DATABASE"}->[0]." done\n";
		}
		return;
	}

	#Adding additional drains
	if (($objective eq "cpd15665" || $objective eq "cpd15667" || $objective eq "cpd15668" || $objective eq "cpd15669") && $additionalexchange !~ m/cpd15666/) {
		$additionalexchange .= ";cpd15666[c]:0:100";
	} elsif ($objective eq "cpd11493" && $additionalexchange !~ m/cpd12370/) {
		$additionalexchange .= ";cpd12370[c]:0:100";
	} elsif ($objective eq "cpd00166" && $additionalexchange !~ m/cpd01997/) {
		$additionalexchange .= ";cpd01997[c]:0:100;cpd03422[c]:0:100";
	}

	#Running MFAToolkit
	my $filename = $self->figmodel()->filename();
	my $command;
	if (defined($AllReversible) && $AllReversible == 1) {
		$command = $self->figmodel()->GenerateMFAToolkitCommandLineCall($filename,$self->id(),$media,["ProductionMFA"],{"use simple variable and constraint names"=>1,"Make all reactions reversible in MFA"=>1, "Recursive MILP solution limit" => $solutionnum,"Generate pathways to objective" => 1,"MFASolver" => "SCIP","objective" => $objectivestring,"exchange species" => $additionalexchange},"MinimalPathways-".$media."-".$self->id().$self->selected_version().".txt",undef,$self->selected_version());
	} else {
		$command = $self->figmodel()->GenerateMFAToolkitCommandLineCall($filename,$self->id(),$media,["ProductionMFA"],{"use simple variable and constraint names"=>1,"Make all reactions reversible in MFA"=>0, "Recursive MILP solution limit" => $solutionnum,"Generate pathways to objective" => 1,"MFASolver" => "SCIP","objective" => $objectivestring,"exchange species" => $additionalexchange},"MinimalPathways-".$media."-".$self->id().$self->selected_version().".txt",undef,$self->selected_version());
	}
	print $command."\n";
	system($command);

	#Loading problem report
	my $results = $self->figmodel()->LoadProblemReport($filename);
	#Clearing output
	$self->figmodel()->clearing_output($filename,"MinimalPathways-".$media."-".$self->id()."-".$objective.".txt");
	if (!defined($results)) {
		print STDERR $objective." pathway results not found!\n";
		return;
	}

	#Parsing output
	my @Array;
	my $row = $results->get_row(1);
	if (defined($row->{"Notes"}->[0])) {
		$_ = $row->{"Notes"}->[0];
		@Array = /\d+:([^\|]+)\|/g;
	}
	
	#Writing output to file
	$self->figmodel()->database()->print_array_to_file($self->directory()."MinimalPathways-".$media."-".$objective."-".$self->id()."-".$AllReversible."-".$self->selected_version().".txt",[join("|",@Array)]);
}

sub combine_minimal_pathways {
	my ($self) = @_;
	
	my $tbl;
	if (-e $self->directory()."MinimalPathwayTable-".$self->id().$self->selected_version().".tbl") {
		$tbl = FIGMODELTable::load_table($self->directory()."MinimalPathwayTable-".$self->id().$self->selected_version().".tbl",";","|",0,["Objective","Media","Reversible"]);
	} else {
		$tbl = FIGMODELTable->new(["Objective","Media","Reactions","Reversible","Shortest path","Number of essentials","Essentials","Length"],$self->directory()."MinimalPathwayTable-".$self->id().$self->selected_version().".tbl",["Objective","Media","Reversible"],";","|");
	}
	my @files = glob($self->directory()."MinimalPathways-*");
	for (my $i=0; $i < @files;$i++) {
		if ($files[$i] =~ m/MinimalPathways\-(\S+)\-(cpd\d\d\d\d\d)\-(\w+)\-(\d)\-/ || $files[$i] =~ m/MinimalPathways\-(\S+)\-(ENERGY)\-(\w+)\-(\d)\-/) {
			my $reactions = $self->figmodel()->database()->load_single_column_file($files[$i],"");
			if (defined($reactions) && @{$reactions} > 0 && length($reactions->[0]) > 0) {
				my $newrow = {"Objective"=>[$2],"Media"=>[$1],"Reversible"=>[$4]};
				my $row = $tbl->get_table_by_key($newrow->{"Objective"}->[0],"Objective")->get_table_by_key($newrow->{"Media"}->[0],"Media")->get_row_by_key($newrow->{"Reversible"}->[0],"Reversible");
				if (!defined($row)) {
					$row = $tbl->add_row($newrow);
				}
				$row->{Reactions} = $self->figmodel()->database()->load_single_column_file($files[$i],"");
				delete($row->{"Shortest path"});
				delete($row->{"Number of essentials"});
				delete($row->{"Essentials"});
				delete($row->{"Length"});
				for (my $j=0; $j < @{$row->{Reactions}}; $j++) {
					my @array = split(/,/,$row->{Reactions}->[$j]);
					$row->{"Length"}->[$j] = @array;
					if (!defined($row->{"Shortest path"}->[0]) || $row->{"Length"}->[$j] < $row->{"Shortest path"}->[0]) {
						$row->{"Shortest path"}->[0] = $row->{"Length"}->[$j];
					}
					$row->{"Number of essentials"}->[0] = 0;
					for (my $k=0; $k < @array;$k++) {
						if ($array[$k] =~ m/(rxn\d\d\d\d\d)/) {
							my $class = $self->get_reaction_class($1,1);
							my $temp = $row->{Media}->[0].":Essential";
							if ($class =~ m/$temp/) {
								$row->{"Number of essentials"}->[$j]++;
								if (!defined($row->{"Essentials"}->[$j]) && length($row->{"Essentials"}->[$j]) > 0) {
									$row->{"Essentials"}->[$j] = $array[$k];
								} else {
									$row->{"Essentials"}->[$j] .= ",".$array[$k];
								}
							}
						}
					}
				}
			}
		}
	}
	$tbl->save();	
}

=head3 calculate_growth
Definition:
	string::growth = FIGMODELmodel->calculate_growth(string:media);
Description:
	Calculating growth in the input media
=cut
sub calculate_growth {
	my ($self,$Media) = @_;
	my $UniqueFilename = $self->figmodel()->filename();
	system($self->figmodel()->GenerateMFAToolkitCommandLineCall($UniqueFilename,$self->id(),$Media,["ProductionMFA"],{"optimize metabolite production if objective is zero" => 1},$self->id()."-".$Media."-GrowthTest.txt",undef,$self->selected_version()));
	my $ProblemReport = $self->figmodel()->LoadProblemReport($UniqueFilename);
	my $Result;
	if (defined($ProblemReport)) {
		my $Row = $ProblemReport->get_row(0);
		if (defined($Row) && defined($Row->{"Objective"}->[0])) {
			if ($Row->{"Objective"}->[0] < 0.00000001) {
				$Result = "NOGROWTH:".$Row->{"Individual metabolites with zero production"}->[0];
			} else {
				$Result = $Row->{"Objective"}->[0];
			}
		}
	}
	return $Result;
}

=head3 classify_model_reactions
Definition:
	(FIGMODELTable:Reaction classes,FIGMODELTable:Compound classes) = FIGMODELmodel->classify_model_reactions(string:media);
Description:
	This function uses the MFAToolkit to minimize and maximize the flux through every reaction in the input model during minimal growth on the input media.
	The results are returned in a hash of strings where the keys are the reaction IDs and the strings are structured as follows: "Class;Min flux;Max flux".
	Possible values for "Class" include:
	1.) Positive: these reactions are essential in the forward direction.
	2.) Negative: these reactions are essential in the reverse direction.
	3.) Positive variable: these reactions are nonessential, but they only ever proceed in the forward direction.
	4.) Negative variable: these reactions are nonessential, but they only ever proceed in the reverse direction.
	5.) Variable: these reactions are nonessential and proceed in the forward or reverse direction.
	6.) Blocked: these reactions never carry any flux at all in the media condition tested.
	7.) Dead: these reactions are disconnected from the network.
=cut
sub classify_model_reactions {
	my ($self,$Media,$SaveChanges) = @_;

	#Getting unique file for printing model output
	my $UniqueFilename = $self->figmodel()->filename();
	#Running the MFAToolkit
	system($self->figmodel()->GenerateMFAToolkitCommandLineCall($UniqueFilename,$self->id(),$Media,["ProductionMFA"],{"identify dead ends" => 1,"find tight bounds" => 1,"MFASolver" => "GLPK"},"Classify-".$self->id().$self->selected_version()."-".$UniqueFilename.".log",undef,$self->selected_version()));
	#Reading in the output bounds file
	my ($ReactionTB,$CompoundTB,$DeadCompounds,$DeadEndCompounds,$DeadReactions);
	if (-e $self->config("MFAToolkit output directory")->[0].$UniqueFilename."/MFAOutput/TightBoundsReactionData0.txt") {
		$ReactionTB = $self->figmodel()->database()->load_table($self->config("MFAToolkit output directory")->[0].$UniqueFilename."/MFAOutput/TightBoundsReactionData0.txt",";","|",1,["DATABASE ID"]);
	}
	if (-e $self->config("MFAToolkit output directory")->[0].$UniqueFilename."/MFAOutput/TightBoundsCompoundData0.txt") {
		$CompoundTB = $self->figmodel()->database()->load_table($self->config("MFAToolkit output directory")->[0].$UniqueFilename."/MFAOutput/TightBoundsCompoundData0.txt",";","|",1,["DATABASE ID"]);
	}
	if (-e $self->config("MFAToolkit output directory")->[0].$UniqueFilename."/DeadReactions.txt") {
		$DeadReactions = $self->figmodel()->put_array_in_hash($self->figmodel()->database()->load_single_column_file($self->config("MFAToolkit output directory")->[0].$UniqueFilename."/DeadReactions.txt",""));
	}
	if (-e $self->config("MFAToolkit output directory")->[0].$UniqueFilename."/DeadMetabolites.txt") {
		$DeadCompounds = $self->figmodel()->put_array_in_hash($self->figmodel()->database()->load_single_column_file($self->config("MFAToolkit output directory")->[0].$UniqueFilename."/DeadMetabolites.txt",""));
	}
	if (-e $self->config("MFAToolkit output directory")->[0].$UniqueFilename."/DeadEndMetabolites.txt") {
		$DeadEndCompounds = $self->figmodel()->put_array_in_hash($self->figmodel()->database()->load_single_column_file($self->config("MFAToolkit output directory")->[0].$UniqueFilename."/DeadEndMetabolites.txt",""));
	}
	if (!defined($ReactionTB) && !defined($CompoundTB)) {
		print STDERR "FIGMODEL:ClassifyModelReactions: Classification file not found when classifying reactions in ".$self->id().$self->selected_version()." with ".$Media." media. Most likely the model did not grow.\n";
		return (undef,undef);
	}

	#Clearing output
	$self->figmodel()->clearing_output($UniqueFilename,"Classify-".$self->id().$self->selected_version()."-".$UniqueFilename.".log");
	#Creating the table objects that will hold the results of the reaction classification
	my $rxnclasstable = $self->reaction_class_table();
	my $cpdclasstable = $self->compound_class_table();
	#Loading the compound table
	if (defined($CompoundTB)) {
		for (my $i=0; $i < $CompoundTB->size(); $i++) {
			my $Row = $CompoundTB->get_row($i);
			if (defined($Row->{"DATABASE ID"})) {
				#Getting the compound row
				my $CpdRow = $cpdclasstable->get_row_by_key($Row->{"DATABASE ID"}->[0].$Row->{COMPARTMENT}->[0],"COMPOUND",1);
				#Setting row values
				my $Max = 0;
				my $Min = 0;
				my $Class = "Unknown";
				if (defined($DeadCompounds) && defined($DeadCompounds->{$Row->{"DATABASE ID"}->[0]})) {
					$Class = "Dead";
				} elsif (defined($DeadEndCompounds) && defined($DeadEndCompounds->{$Row->{"DATABASE ID"}->[0]})) {
					$Class = "Deadend";
				} elsif (defined($Row->{"Min DRAIN_FLUX"}) && defined($Row->{"Max DRAIN_FLUX"}) && $Row->{"Min DRAIN_FLUX"}->[0] ne "1e+07") {
					$Max = $Row->{"Max DRAIN_FLUX"}->[0];
					$Min = $Row->{"Min DRAIN_FLUX"}->[0];
					if ($Row->{"Min DRAIN_FLUX"}->[0] > 0.00000001) {
						$Class = "Positive";
					} elsif ($Row->{"Max DRAIN_FLUX"}->[0] < -0.00000001) {
						$Class = "Negative";
					} elsif ($Row->{"Min DRAIN_FLUX"}->[0] < -0.00000001) {
						if ($Row->{"Max DRAIN_FLUX"}->[0] > 0.00000001) {
							$Class = "Variable";
						} else {
							$Max = 0;
							$Class = "Negative variable";
						}
					} elsif ($Row->{"Max DRAIN_FLUX"}->[0] > 0.00000001) {
						$Min = 0;
						$Class = "Positive variable";
					} else {
						$Min = 0;
						$Max = 0;
						$Class = "Blocked";
					}
				}
				my $index = 0;
				if (defined($CpdRow->{MEDIA})) {
					for (my $i=0; $i < @{$CpdRow->{MEDIA}};$i++) {
						$index++;
						if ($CpdRow->{MEDIA}->[$i] eq $Media) {
							$index = $i;
							last;
						}
					}
				}
				$CpdRow->{MIN}->[$index] = $Min;
				$CpdRow->{MAX}->[$index] = $Max;
				$CpdRow->{CLASS}->[$index] = $Class;
				$CpdRow->{MEDIA}->[$index] = $Media;
			}
		}
		if (!defined($SaveChanges) || $SaveChanges == 1) {
			$cpdclasstable->save();
		}
	}
	if (defined($ReactionTB)) {
		for (my $i=0; $i < $ReactionTB->size(); $i++) {
			my $Row = $ReactionTB->get_row($i);
			if (defined($Row->{"DATABASE ID"})) {
				#Getting the compound row
				my $Compartment = "c";
				if (defined($Row->{COMPARTMENT}->[0])) {
					$Compartment = $Row->{COMPARTMENT}->[0];
				}
				my $RxnRow = $rxnclasstable->get_row_by_key($Row->{"DATABASE ID"}->[0],"REACTION",1);
				my $Max = 0;
				my $Min = 0;
				my $Class = "Unknown";
				if (defined($DeadReactions) && defined($DeadReactions->{$Row->{"DATABASE ID"}->[0]})) {
					$Class = "Dead";
				} elsif (defined($Row->{"Min FLUX"}) && defined($Row->{"Max FLUX"})) {
					$Max = $Row->{"Max FLUX"}->[0];
					$Min = $Row->{"Min FLUX"}->[0];
					if ($Row->{"Min FLUX"}->[0] > 0.00000001) {
						$Class = "Positive";
					} elsif ($Row->{"Max FLUX"}->[0] < -0.00000001) {
						$Class = "Negative";
					} elsif ($Row->{"Min FLUX"}->[0] < -0.00000001) {
						if ($Row->{"Max FLUX"}->[0] > 0.00000001) {
							$Class = "Variable";
						} else {
							$Max = 0;
							$Class = "Negative variable";
						}
					} elsif ($Row->{"Max FLUX"}->[0] > 0.00000001) {
						$Min = 0;
						$Class = "Positive variable";
					} else {
						$Min = 0;
						$Max = 0;
						$Class = "Blocked";
					}
				}
				my $index = 0;
				if (defined($RxnRow->{MEDIA})) {
					for (my $i=0; $i < @{$RxnRow->{MEDIA}};$i++) {
						$index++;
						if ($RxnRow->{MEDIA}->[$i] eq $Media) {
							$index = $i;
							last;
						}
					}
				}
				$RxnRow->{MIN}->[$index] = $Min;
				$RxnRow->{MAX}->[$index] = $Max;
				$RxnRow->{CLASS}->[$index] = $Class;
				$RxnRow->{MEDIA}->[$index] = $Media;
			}
		}
		if (!defined($SaveChanges) || $SaveChanges == 1) {
			$rxnclasstable->save();
		}
	}
	return ($rxnclasstable,$cpdclasstable);
}

=head3 RunAllStudiesWithDataFast
Definition:
	(integer::false positives,integer::false negatives,integer::correct negatives,integer::correct positives,string::error vector,string heading vector) = FIGMODELmodel->RunAllStudiesWithDataFast(string::experiment,0/1::print result);
Description:
	Simulates every experimental condition currently available for the model.
=cut

sub RunAllStudiesWithDataFast {
	my ($self,$Experiment,$PrintResults) = @_;

	#Printing lp and key file for model
	if (!-e $self->directory()."FBA-".$self->id().$self->selected_version().".lp") {
		$self->PrintModelLPFile();
	}
	my $UniqueFilename = $self->figmodel()->filename();

	#Determing the simulations that need to be run
	my $ExperimentalDataTable = $self->figmodel()->GetExperimentalDataTable($self->genome(),$Experiment);
	#Creating the table of jobs to submit
	my $JobArray = $self->GetSimulationJobTable($ExperimentalDataTable,$Experiment,$UniqueFilename);
	#Printing the job file
	if (!-d $self->config("MFAToolkit output directory")->[0].$UniqueFilename."/") {
		system("mkdir ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/");
	}
	$JobArray->save();

	#Running simulations
	system($self->config("mfalite executable")->[0]." ".$self->config("Reaction database directory")->[0]."masterfiles/MediaTable.txt ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/Jobfile.txt ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/Output.txt");
	#Parsing the results
	my $Results = $self->figmodel()->database()->load_table($self->config("MFAToolkit output directory")->[0].$UniqueFilename."/Output.txt",";","\\|",0,undef);
	if (!defined($Results)) {
		$self->figmodel()->error_message("FIGMODELmodel:RunAllStudiesWithDataFast:Could not find simulation results: ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/Output.txt");
		return undef;
	}
	my ($FalsePostives,$FalseNegatives,$CorrectNegatives,$CorrectPositives,$Errorvector,$HeadingVector,$SimulationResults) = $self->EvaluateSimulationResults($Results,$ExperimentalDataTable);
	#Printing results to file
	$self->figmodel()->database()->save_table($SimulationResults,undef,undef,undef,"False negatives\tFalse positives\tCorrect negatives\tCorrect positives\n".$FalseNegatives."\t".$FalsePostives."\t".$CorrectNegatives."\t".$CorrectPositives."\n");
	$self->figmodel()->clearing_output($UniqueFilename);

	return ($FalsePostives,$FalseNegatives,$CorrectNegatives,$CorrectPositives,$Errorvector,$HeadingVector);
}

=head3 GetSimulationJobTable
Definition:
	my $JobTable = $model->GetSimulationJobTable($Experiment,$PrintResults,$Version);
Description:
=cut

sub GetSimulationJobTable {
	my ($self,$SimulationTable,$Experiment,$Folder) = @_;

	#Determing the simulations that need to be run
	if (!defined($SimulationTable)) {
		$SimulationTable = $self->figmodel()->GetExperimentalDataTable($self->genome(),$Experiment);
		if (!defined($SimulationTable)) {
			return undef;
		}
	}

	#Creating the job table
	my $JobTable = $self->figmodel()->CreateJobTable($Folder);
	for (my $i=0; $i < $SimulationTable->size(); $i++) {
		if ($SimulationTable->get_row($i)->{"Heading"}->[0] =~ m/Gene\sKO/) {
			my $Row = $JobTable->get_row_by_key("Gene KO","LABEL",1);
			$JobTable->add_data($Row,"MEDIA",$SimulationTable->get_row($i)->{"Media"}->[0],1);
		} elsif ($SimulationTable->get_row($i)->{"Heading"}->[0] =~ m/Media\sgrowth/) {
			my $Row = $JobTable->get_row_by_key("Growth phenotype","LABEL",1);
			$JobTable->add_data($Row,"MEDIA",$SimulationTable->get_row($i)->{"Media"}->[0],1);
		} elsif ($SimulationTable->get_row($i)->{"Heading"}->[0] =~ m/Interval\sKO/) {
			my $Row = $JobTable->get_row_by_key($SimulationTable->get_row($i)->{"Heading"}->[0],"LABEL",1);
			$JobTable->add_data($Row,"MEDIA",$SimulationTable->get_row($i)->{"Media"}->[0],1);
			$JobTable->add_data($Row,"GENE KO",$SimulationTable->get_row($i)->{"Experiment type"}->[0],1);
		}
	}

	#Filling in model specific elements of the job table
	for (my $i=0; $i < $JobTable->size(); $i++) {
		if ($JobTable->get_row($i)->{"LABEL"}->[0] =~ m/Gene\sKO/) {
			$JobTable->get_row($i)->{"RUNTYPE"}->[0] = "SINGLEKO";
			$JobTable->get_row($i)->{"SAVE NONESSENTIALS"}->[0] = 1;
		} else {
			$JobTable->get_row($i)->{"RUNTYPE"}->[0] = "GROWTH";
			$JobTable->get_row($i)->{"SAVE NONESSENTIALS"}->[0] = 0;
		}
		$JobTable->get_row($i)->{"LP FILE"}->[0] = $self->directory()."FBA-".$self->id().$self->selected_version();
		$JobTable->get_row($i)->{"MODEL"}->[0] = $self->directory().$self->id().$self->selected_version().".txt";
		$JobTable->get_row($i)->{"SAVE FLUXES"}->[0] = 0;
	}

	return $JobTable;
}

=head3 EvaluateSimulationResults
Definition:
	(integer::false positives,integer::false negatives,integer::correct negatives,integer::correct positives,string::error vector,string heading vector,FIGMODELtable::simulation results) = FIGMODELmodel->EvaluateSimulationResults(FIGMODELtable::raw simulation results,FIGMODELtable::experimental data);
Description:
	Compares simulation results with experimental data to produce a table indicating where predictions are incorrect.
=cut

sub EvaluateSimulationResults {
	my ($self,$Results,$ExperimentalDataTable) = @_;

	#Comparing experimental results with simulation results
	my $SimulationResults = FIGMODELTable->new(["Run result","Experiment type","Media","Experiment ID","Reactions knocked out"],$self->directory()."SimulationOutput".$self->id().$self->selected_version().".txt",["Experiment ID","Media"],"\t",",",undef);
	my $FalsePostives = 0;
	my $FalseNegatives = 0;
	my $CorrectNegatives = 0;
	my $CorrectPositives = 0;
	my @Errorvector;
	my @HeadingVector;
	my $ReactionKOWithGeneHash;
	for (my $i=0; $i < $Results->size(); $i++) {
		if ($Results->get_row($i)->{"LABEL"}->[0] eq "Gene KO") {
			if (defined($Results->get_row($i)->{"REACTION KO WITH GENES"})) {
				for (my $j=0; $j < @{$Results->get_row($i)->{"REACTION KO WITH GENES"}}; $j++) {
					my @Temp = split(/:/,$Results->get_row($i)->{"REACTION KO WITH GENES"}->[$j]);
					if (defined($Temp[1]) && length($Temp[1]) > 0) {
						$ReactionKOWithGeneHash->{$Temp[0]} = $Temp[1];
					}
				}
			}
			if ($Results->get_row($i)->{"OBJECTIVE"}->[0] == 0) {
				for (my $j=0; $j < @{$Results->get_row($i)->{"NONESSENTIALGENES"}}; $j++) {
					my $Row = $ExperimentalDataTable->get_row_by_key("Gene KO:".$Results->get_row($i)->{"MEDIA"}->[0].":".$Results->get_row($i)->{"NONESSENTIALGENES"}->[$j],"Heading");
					if (defined($Row)) {
						my $KOReactions = "none";
						if (defined($ReactionKOWithGeneHash->{$Results->get_row($i)->{"NONESSENTIALGENES"}->[$j]})) {
							$KOReactions = $ReactionKOWithGeneHash->{$Results->get_row($i)->{"NONESSENTIALGENES"}->[$j]};
						}
						push(@HeadingVector,$Row->{"Heading"}->[0].":".$KOReactions);
						my $Status = "Unknown";
						if ($Row->{"Growth"}->[0] > 0) {
							$Status = "False negative";
							$FalseNegatives++;
							push(@Errorvector,3);
						} else {
							$Status = "False positive";
							$FalsePostives++;
							push(@Errorvector,2);
						}
						$SimulationResults->add_row({"Run result" => [$Status],"Experiment type" => ["Gene KO"],"Media" => [$Row->{"Media"}->[0]],"Experiment ID" => [$Row->{"Experiment ID"}->[0]],"Reactions knocked out" => [$KOReactions]});
					}
				}
			} else {
				for (my $j=0; $j < @{$Results->get_row($i)->{"ESSENTIALGENES"}}; $j++) {
					#print $j."\t".$Results->get_row($i)->{"ESSENTIALGENES"}->[$j]."\n";
					my $Row = $ExperimentalDataTable->get_row_by_key("Gene KO:".$Results->get_row($i)->{"MEDIA"}->[0].":".$Results->get_row($i)->{"ESSENTIALGENES"}->[$j],"Heading");
					if (defined($Row)) {
						my $KOReactions = "none";
						if (defined($ReactionKOWithGeneHash->{$Results->get_row($i)->{"ESSENTIALGENES"}->[$j]})) {
							$KOReactions = $ReactionKOWithGeneHash->{$Results->get_row($i)->{"ESSENTIALGENES"}->[$j]};
						}
						push(@HeadingVector,$Row->{"Heading"}->[0].":".$KOReactions);
						my $Status = "Unknown";
						if ($Row->{"Growth"}->[0] > 0) {
							$Status = "False negative";
							$FalseNegatives++;
							push(@Errorvector,3);
						} else {
							$Status = "Correct negative";
							$CorrectNegatives++;
							push(@Errorvector,1);
						}
						$SimulationResults->add_row({"Run result" => [$Status],"Experiment type" => ["Gene KO"],"Media" => [$Row->{"Media"}->[0]],"Experiment ID" => [$Row->{"Experiment ID"}->[0]],"Reactions knocked out" => [$KOReactions]});
					}
				}
				for (my $j=0; $j < @{$Results->get_row($i)->{"NONESSENTIALGENES"}}; $j++) {
					my $Row = $ExperimentalDataTable->get_row_by_key("Gene KO:".$Results->get_row($i)->{"MEDIA"}->[0].":".$Results->get_row($i)->{"NONESSENTIALGENES"}->[$j],"Heading");
					if (defined($Row)) {
						my $KOReactions = "none";
						if (defined($ReactionKOWithGeneHash->{$Results->get_row($i)->{"NONESSENTIALGENES"}->[$j]})) {
							$KOReactions = $ReactionKOWithGeneHash->{$Results->get_row($i)->{"NONESSENTIALGENES"}->[$j]};
						}
						push(@HeadingVector,$Row->{"Heading"}->[0].":".$KOReactions);
						my $Status = "Unknown";
						if ($Row->{"Growth"}->[0] > 0) {
							$Status = "Correct positive";
							$CorrectPositives++;
							push(@Errorvector,0);
						} else {
							$Status = "False positive";
							$FalsePostives++;
							push(@Errorvector,2);
						}
						$SimulationResults->add_row({"Run result" => [$Status],"Experiment type" => ["Gene KO"],"Media" => [$Row->{"Media"}->[0]],"Experiment ID" => [$Row->{"Experiment ID"}->[0]],"Reactions knocked out" => [$KOReactions]});
					}
				}
			}
		} elsif ($Results->get_row($i)->{"LABEL"}->[0] eq "Growth phenotype") {
			my $Row = $ExperimentalDataTable->get_row_by_key("Media growth:".$Results->get_row($i)->{"MEDIA"}->[0].":".$Results->get_row($i)->{"MEDIA"}->[0],"Heading");
			if (defined($Row)) {
				push(@HeadingVector,$Row->{"Heading"}->[0].":none");
				my $Status = "Unknown";
				if ($Row->{"Growth"}->[0] > 0) {
					if ($Results->get_row($i)->{"OBJECTIVE"}->[0] > 0) {
						$Status = "Correct positive";
						$CorrectPositives++;
						push(@Errorvector,0);
					} else {
						$Status = "False negative";
						$FalseNegatives++;
						push(@Errorvector,3);
					}
				} else {
					if ($Results->get_row($i)->{"OBJECTIVE"}->[0] > 0) {
						$Status = "False positive";
						$FalsePostives++;
						push(@Errorvector,2);
					} else {
						$Status = "Correct negative";
						$CorrectNegatives++;
						push(@Errorvector,1);
					}
				}
				$SimulationResults->add_row({"Run result" => [$Status],"Experiment type" => ["Media growth"],"Media" => [$Row->{"Media"}->[0]],"Experiment ID" => [$Row->{"Media"}->[0]],"Reactions knocked out" => ["none"]});
			}
		} elsif ($Results->get_row($i)->{"LABEL"}->[0] =~ m/Interval\sKO/ && defined($Results->get_row($i)->{"KOGENES"}->[0])) {
			my $Row = $ExperimentalDataTable->get_row_by_key($Results->get_row($i)->{"LABEL"}->[0],"Heading");
			if (defined($Row)) {
				my $Status = "Unknown";
				if ($Row->{"Growth"}->[0] > 0) {
					if ($Results->get_row($i)->{"OBJECTIVE"}->[0] > 0) {
						$Status = "Correct positive";
						$CorrectPositives++;
						push(@Errorvector,0);
					} else {
						$Status = "False negative";
						$FalseNegatives++;
						push(@Errorvector,3);
					}
				} else {
					if ($Results->get_row($i)->{"OBJECTIVE"}->[0] > 0) {
						$Status = "False positive";
						$FalsePostives++;
						push(@Errorvector,2);
					} else {
						$Status = "Correct negative";
						$CorrectNegatives++;
						push(@Errorvector,1);
					}
				}
				$SimulationResults->add_row({"Run result" => [$Status],"Experiment type" => ["Interval KO"],"Media" => [$Row->{"Media"}->[0]],"Experiment ID" => [$Row->{"Experiment ID"}->[0]],"Reactions knocked out" => ["none"]});
			}
		}
	}

	return ($FalsePostives,$FalseNegatives,$CorrectNegatives,$CorrectPositives,join(";",@Errorvector),join(";",@HeadingVector),$SimulationResults);
}

=head3 InspectSolution
Definition:
	$model->InspectSolution(string::gene knocked out,string::media condition,[string]::list of reactions);
Description:
=cut

sub InspectSolution {
	my ($self,$GeneKO,$Media,$ReactionList) = @_;

	#Getting a directory for the results
	my $UniqueFilename = $self->figmodel()->filename();
	system("mkdir ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/");
	my $TempVersion = "V".$UniqueFilename;

	#Setting gene ko to none if no genes are to be knocked out
	if ($GeneKO !~ m/^peg\./) {
		$GeneKO = "none";
	}

	#Implementing the input solution in the test model
	my $ReactionArray;
	my $DirectionArray;
	my %SolutionHash;
	for (my $k=0; $k < @{$ReactionList}; $k++) {
		if ($ReactionList->[$k] =~ m/(.+)(rxn\d\d\d\d\d)/) {
			my $Reaction = $2;
			my $Sign = $1;
			if (defined($SolutionHash{$Reaction})) {
				$SolutionHash{$Reaction} = "<=>";
			} elsif ($Sign eq "-") {
				$SolutionHash{$Reaction} = "<=";
			} elsif ($Sign eq "+") {
				$SolutionHash{$Reaction} = "=>";
			} else {
				$SolutionHash{$Reaction} = $Sign;
			}
		}
	}
	my @TempList = keys(%SolutionHash);
	for (my $k=0; $k < @TempList; $k++) {
		push(@{$ReactionArray},$TempList[$k]);
		push(@{$DirectionArray},$SolutionHash{$TempList[$k]});
	}

	print "Integrating solution!\n";
	$self->figmodel()->IntegrateGrowMatchSolution($self->id().$self->selected_version(),$self->directory().$self->id().$TempVersion.".txt",$ReactionArray,$DirectionArray,"SolutionInspection",1,1);

	#Printing lp and key file for model
	$self->PrintModelLPFile();

	#Running FBA on the test model
	my $JobTable = $self->figmodel()->CreateJobTable($UniqueFilename);
	$JobTable->add_row({"LABEL" => ["TEST"],"RUNTYPE" => ["GROWTH"],"LP FILE" => [$self->directory()."FBA-".$self->id().$TempVersion],"MODEL" => [$self->directory().$self->id().$TempVersion.".txt"],"MEDIA" => [$Media],"REACTION KO" => ["none|".join("|",@{$ReactionList})],"GENE KO" => [$GeneKO],"SAVE FLUXES" => [0],"SAVE NONESSENTIALS" => [0]});
	$JobTable->save();

	#Running simulations
	system($self->config("mfalite executable")->[0]." ".$self->config("Reaction database directory")->[0]."masterfiles/MediaTable.txt ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/Jobfile.txt ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/Output.txt");

	#Parsing the results
	my $Results = $self->figmodel()->database()->load_table($self->config("MFAToolkit output directory")->[0].$UniqueFilename."/Output.txt",";","\\|",0,undef);
	if (!defined($Results)) {
		$self->figmodel()->error_message("FIGMODELmodel:InspectSolution:Could not load problem report ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/Output.txt");
		return undef;
	}

	#Making sure that the model grew with all reactions present
	my $Found = 0;
	for (my $i=0; $i < $Results->size(); $i++) {
		if (defined($Results->get_row($i)->{"KOGENES"}->[0]) && defined($Results->get_row($i)->{"KOREACTIONS"}->[0]) && $Results->get_row($i)->{"KOREACTIONS"}->[0] eq "none" && $Results->get_row($i)->{"KOGENES"}->[0] eq $GeneKO && $Results->get_row($i)->{"OBJECTIVE"}->[0] > 0.00001) {
			$Found = 1;
		}
	}
	if ($Found == 0) {
		print "Solution no longer valid\n";
		return undef;
	}

	#Making sure all of the reactions added are still necessary
	my $FinalReactionList;
	for (my $k=0; $k < $Results->size(); $k++) {
		if (defined($Results->get_row($k)->{"KOGENES"}->[0]) && $Results->get_row($k)->{"KOGENES"}->[0] eq $GeneKO) {
			if (defined($Results->get_row($k)->{"KOREACTIONS"}->[0]) && $Results->get_row($k)->{"KOREACTIONS"}->[0] =~ m/rxn\d\d\d\d\d/ && $Results->get_row($k)->{"OBJECTIVE"}->[0] < 0.000001) {
				push(@{$FinalReactionList},$Results->get_row($k)->{"KOREACTIONS"}->[0]);
			}
		}
	}

	#Deleting extra files created
	unlink($self->directory()."FBA-".$self->id().$TempVersion.".lp");
	unlink($self->directory()."FBA-".$self->id().$TempVersion.".key");
	unlink($self->directory().$self->id().$TempVersion.".txt");

	#Deleting the test model and the MFA folder
	$self->figmodel()->clearing_output($UniqueFilename);

	return $FinalReactionList;
}

=head3 GapFillingAlgorithm

Definition:
	FIGMODELmodel->GapFillingAlgorithm();

Description:
	This is a wrapper for running the gap filling algorithm on any model in the database.
	The algorithm performs a gap filling for any false negative prediction of the avialable experimental data.
	This function is threaded to improve efficiency: one thread does nothing but using the MFAToolkit to fill gaps for every false negative prediction.
	The other thread reads in the gap filling solutions, builds a test model for each solution, and runs the test model against all available experimental data.
	This function prints two important output files in the Model directory:
	1.) GapFillingOutput.txt: this is a summary of the results of the gap filling analysis
	2.) GapFillingErrorMatrix.txt: this lists the correct and incorrect predictions for each gapfilling solution implemented in a test model.
=cut

sub GapFillingAlgorithm {
	my ($self) = @_;

	#First the input model version and model filename should be simulated and the false negatives identified
	my ($FalsePostives,$FalseNegatives,$CorrectNegatives,$CorrectPositives,$Errorvector,$HeadingVector) = $self->RunAllStudiesWithDataFast("All");

	#Getting the filename
	my $UniqueFilename = $self->figmodel()->filename();

	#Printing the original performance vector
	$self->figmodel()->database()->print_array_to_file($self->directory().$self->id().$self->selected_version()."-OPEM".".txt",[$HeadingVector,$Errorvector]);

	my $PreviousGapFilling;
	if (-e $self->directory().$self->id().$self->selected_version()."-GFS.txt") {
		#Backing up the old solution file
		system("cp ".$self->directory().$self->id().$self->selected_version()."-GFS.txt ".$self->directory().$self->id().$self->selected_version()."-OldGFS.txt");
		unlink($self->directory().$self->id().$self->selected_version()."-GFS.txt");
	}
	if (-e $self->directory().$self->id().$self->selected_version()."-OldGFS.txt") {
		#Reading in the solution file from the previous gap filling if it exists
		$PreviousGapFilling = $self->figmodel()->database()->load_table($self->directory().$self->id().$self->selected_version()."-OldGFS.txt",";",",",0,["Experiment"]);
	}

	#Now we use the simulation output to make the gap filling run data
	my @Errors = split(/;/,$Errorvector);
	my @Headings = split(/;/,$HeadingVector);
	my $GapFillingRunSpecs = "";
	my $Count = 0;
	my $RescuedPreviousResults;
	my $RunCount = 0;
	my $SolutionExistedCount = 0;
	my $AcceptedSolutions = 0;
	my $RejectedSolutions = 0;
	my $NoExistingSolutions = 0;
	for (my $i=0; $i < @Errors; $i++) {
		if ($Errors[$i] == 3) {
			my @HeadingDataArray = split(/:/,$Headings[$i]);
			if ($HeadingDataArray[2] !~ m/^peg\./ || $HeadingDataArray[3] ne "none") {
				my $SolutionFound = 0;
				if (defined($PreviousGapFilling) && defined($PreviousGapFilling->get_row_by_key($HeadingDataArray[2],"Experiment"))) {
					my @Rows = $PreviousGapFilling->get_rows_by_key($HeadingDataArray[2],"Experiment");
					for (my $j=0; $j < @Rows; $j++) {
						if ($HeadingDataArray[2] =~ m/^peg\./) {
							my $ReactionList = $self->InspectSolution($HeadingDataArray[2],$HeadingDataArray[1],$Rows[$j]->{"Solution reactions"});
							if (defined($ReactionList)) {
								print join(",",@{$Rows[$j]->{"Solution reactions"}})."\t".join(",",@{$ReactionList})."\n";
								$SolutionFound++;
								push(@{$RescuedPreviousResults},$Rows[$j]->{"Experiment"}->[0].";".$Rows[$j]->{"Solution index"}->[0].";".$Rows[$j]->{"Solution cost"}->[0].";".join(",",@{$ReactionList}));
								$AcceptedSolutions++;
							} else {
								$RejectedSolutions++;
							}
						} else {
							my $ReactionList = $self->InspectSolution($HeadingDataArray[2],$HeadingDataArray[1],$Rows[$j]->{"Solution reactions"});
							if (defined($ReactionList)) {
								print join(",",@{$Rows[$j]->{"Solution reactions"}})."\t".join(",",@{$ReactionList})."\n";
								$SolutionFound++;
								push(@{$RescuedPreviousResults},$Rows[$j]->{"Experiment"}->[0].";".$Rows[$j]->{"Solution index"}->[0].";".$Rows[$j]->{"Solution cost"}->[0].";".join(",",@{$ReactionList}));
								$AcceptedSolutions++;
							} else {
								$RejectedSolutions++;
							}
						}
					}
				} else {
					$NoExistingSolutions++;
				}
				if ($SolutionFound == 0) {
					$RunCount++;
					if (length($GapFillingRunSpecs) > 0) {
						$GapFillingRunSpecs .= ";";
					}
					$GapFillingRunSpecs .= $HeadingDataArray[2].":".$HeadingDataArray[1].":".$HeadingDataArray[3];
				} else {
					$SolutionExistedCount++;
				}
			}
			$Count++;
		}
	}

	#Updating the growmatch progress table
	my $Row = $self->figmodel()->database()->get_row_by_key("GROWMATCH TABLE",$self->genome(),"ORGANISM",1);
	$Row->{"INITIAL FP"}->[0] = $FalsePostives;
	$Row->{"INITIAL FN"}->[0] = $FalseNegatives;
	$Row->{"GF TIMING"}->[0] = time()."-";
	$Row->{"FN WITH SOL"}->[0] = $FalseNegatives-$NoExistingSolutions;
	$Row->{"FN WITH ACCEPTED SOL"}->[0] = $SolutionExistedCount;
	$Row->{"TOTAL ACCEPTED GF SOL"}->[0] = $AcceptedSolutions;
	$Row->{"TOTAL REJECTED GF SOL"}->[0] = $RejectedSolutions;
	$Row->{"FN WITH NO SOL"}->[0] = $NoExistingSolutions+$RejectedSolutions;
	$self->figmodel()->database()->update_row("GROWMATCH TABLE",$Row,"ORGANISM");

	#Running the gap filling once to correct all false negative errors
	my $SolutionsFound = 0;
	my $GapFillingArray;
	push(@{$GapFillingArray},split(/;/,$GapFillingRunSpecs));
	my $GapFillingResults = $self->datagapfill($GapFillingArray,"GFS");
	if (defined($GapFillingResults)) {
		$SolutionsFound = 1;
	}

	if (defined($RescuedPreviousResults) && @{$RescuedPreviousResults} > 0) {
		#Printing previous solutions to GFS file
		$self->figmodel()->database()->print_array_to_file($self->directory().$self->id().$self->selected_version()."-GFS.txt",$RescuedPreviousResults,1);
		$SolutionsFound = 1;
	}

	#Recording the finishing of the gapfilling
	$Row = $self->figmodel()->database()->get_row_by_key("GROWMATCH TABLE",$self->genome(),"ORGANISM",1);
	$Row->{"GF TIMING"}->[0] .= time();
	$self->figmodel()->database()->update_row("GROWMATCH TABLE",$Row,"ORGANISM");

	if ($SolutionsFound == 1) {
		#Scheduling solution testing
		$self->figmodel()->add_job_to_queue("testsolutions?".$self->id().$self->selected_version()."?-1?GF","QSUB","fast","master","BACK");
	} else {
		$self->figmodel()->error_message("No false negative predictions found. Data gap filling not necessary!");
	}

	return $self->success();
}

=head3 SolutionReconciliation
Definition:
	FIGMODELmodel->SolutionReconciliation();
Description:
	This is a wrapper for running the solution reconciliation algorithm on any model in the database.
	The algorithm performs a reconciliation of any gap filling solutions to identify the combination of solutions that results in the optimal model.
	This function prints out one output file in the Model directory: ReconciliationOutput.txt: this is a summary of the results of the reconciliation analysis
=cut

sub SolutionReconciliation {
	my ($self,$GapFill,$Stage) = @_;

	#Setting the output filenames
	my $OutputFilename;
	my $OutputFilenameTwo;
	if ($GapFill == 1) {
		$OutputFilename = $self->directory().$self->id().$self->selected_version()."-GFReconciliation.txt";
		$OutputFilenameTwo = $self->directory().$self->id().$self->selected_version()."-GFSRS.txt";
	} else {
		$OutputFilename = $self->directory().$self->id().$self->selected_version()."-GGReconciliation.txt";
		$OutputFilenameTwo = $self->directory().$self->id().$self->selected_version()."-GGSRS.txt";
	}

	#In stage one, we run the reconciliation and create a test file to check combined solution performance
	if (!defined($Stage) || $Stage == 1) {
		my $GrowMatchTable = $self->figmodel()->database()->LockDBTable("GROWMATCH TABLE");
		my $Row = $GrowMatchTable->get_row_by_key($self->genome(),"ORGANISM",1);
		$Row->{"GF RECONCILATION TIMING"}->[0] = time()."-";
		$GrowMatchTable->save();
		$self->figmodel()->database()->UnlockDBTable("GROWMATCH TABLE");

		#Getting a unique filename
		my $UniqueFilename = $self->figmodel()->filename();

		#Copying over the necessary files
		if ($GapFill == 1) {
			if (!-e $self->directory().$self->id().$self->selected_version()."-GFEM.txt") {
				print STDERR "FIGMODEL:SolutionReconciliation:".$self->directory().$self->id().$self->selected_version()."-GFEM.txt file not found. Could not reconcile!";
				return 0;
			}
			if (!-e $self->directory().$self->id().$self->selected_version()."-OPEM.txt") {
				print STDERR "FIGMODEL:SolutionReconciliation:".$self->directory().$self->id().$self->selected_version()."-OPEM.txt file not found. Could not reconcile!";
				return 0;
			}
			system("cp ".$self->directory().$self->id().$self->selected_version()."-GFEM.txt ".$self->figmodel()->config("MFAToolkit input files")->[0].$UniqueFilename."-GFEM.txt");
			system("cp ".$self->directory().$self->id().$self->selected_version()."-OPEM.txt ".$self->figmodel()->config("MFAToolkit input files")->[0].$UniqueFilename."-OPEM.txt");
			#Backing up and deleting the existing reconciliation file
			if (-e $OutputFilename) {
				system("cp ".$OutputFilename." ".$self->directory().$self->id().$self->selected_version()."-OldGFReconciliation.txt");
				unlink($OutputFilename);
			}
		} else {
			if (!-e $self->directory().$self->id().$self->selected_version()."-GGEM.txt") {
				print STDERR "FIGMODEL:SolutionReconciliation:".$self->directory().$self->id().$self->selected_version()."-GGEM.txt file not found. Could not reconcile!";
				return 0;
			}
			if (!-e $self->directory().$self->id().$self->selected_version()."-GGOPEM.txt") {
				print STDERR "FIGMODEL:SolutionReconciliation:".$self->directory().$self->id().$self->selected_version()."-GGOPEM.txt file not found. Could not reconcile!";
				return 0;
			}
			system("cp ".$self->directory().$self->id().$self->selected_version()."-GGEM.txt ".$self->figmodel()->config("MFAToolkit input files")->[0].$UniqueFilename."-GGEM.txt");
			system("cp ".$self->directory().$self->id().$self->selected_version()."-GGOPEM.txt ".$self->figmodel()->config("MFAToolkit input files")->[0].$UniqueFilename."-OPEM.txt");
			#Backing up and deleting the existing reconciliation file
			if (-e $OutputFilename) {
				system("cp ".$OutputFilename." ".$self->directory().$self->id().$self->selected_version()."-OldGGReconciliation.txt");
				unlink($OutputFilename);
			}
		}

		#Running the reconciliation
		system($self->figmodel()->GenerateMFAToolkitCommandLineCall($UniqueFilename,$self->id(),"NONE",["SolutionReconciliation"],{"Solution data for model optimization" => $UniqueFilename},"Reconciliation".$UniqueFilename.".log",undef,$self->selected_version()));
		$GrowMatchTable = $self->figmodel()->database()->LockDBTable("GROWMATCH TABLE");
		$Row = $GrowMatchTable->get_row_by_key($self->genome(),"ORGANISM",1);
		$Row->{"GF RECONCILATION TIMING"}->[0] .= time();
		$GrowMatchTable->save();
		$self->figmodel()->database()->UnlockDBTable("GROWMATCH TABLE");

		#Loading the problem report from the reconciliation run
		my $ReconciliatonOutput = $self->figmodel()->LoadProblemReport($UniqueFilename);
		print $UniqueFilename."\n";
		#Clearing output files
		$self->figmodel()->clearing_output($UniqueFilename,"Reconciliation".$UniqueFilename.".log");
		$ReconciliatonOutput->save("/home/chenry/Test.txt");

		#Checking the a problem report was found and was loaded
		if (!defined($ReconciliatonOutput) || $ReconciliatonOutput->size() < 1 || !defined($ReconciliatonOutput->get_row(0)->{"Notes"}->[0])) {
			print STDERR "FIGMODEL:SolutionReconciliation: MFAToolkit output from SolutionReconciliation of ".$self->id()." not found!\n\n";
			return 0;
		}

		#Processing the solutions
		my $SolutionCount = 0;
		my $ReactionSetHash;
		my $SingleReactionHash;
		my $ReactionDataHash;
		for (my $n=0; $n < $ReconciliatonOutput->size(); $n++) {
			if (defined($ReconciliatonOutput->get_row($n)->{"Notes"}->[0]) && $ReconciliatonOutput->get_row($n)->{"Notes"}->[0] =~ m/^Recursive\sMILP\s([^;]+)/) {
				#Breaking up the solution into reaction sets
				my @ReactionSets = split(/\|/,$1);
				#Creating reaction lists for each set
				my $SolutionHash;
				for (my $i=0; $i < @ReactionSets; $i++) {
					if (length($ReactionSets[$i]) > 0) {
						my @Alternatives = split(/:/,$ReactionSets[$i]);
						for (my $j=1; $j < @Alternatives; $j++) {
							if (length($Alternatives[$j]) > 0) {
								push(@{$SolutionHash->{$Alternatives[$j]}},$Alternatives[0]);
							}
						}
						if (@Alternatives == 1) {
							$SingleReactionHash->{$Alternatives[0]}->{$SolutionCount} = 1;
							if (!defined($SingleReactionHash->{$Alternatives[0]}->{"COUNT"})) {
								$SingleReactionHash->{$Alternatives[0]}->{"COUNT"} = 0;
							}
							$SingleReactionHash->{$Alternatives[0]}->{"COUNT"}++;
						}
					}
				}
				#Identifying reactions sets and storing the sets in the reactions set hash
				foreach my $Solution (keys(%{$SolutionHash})) {
					my $SetKey = join(",",sort(@{$SolutionHash->{$Solution}}));
					if (!defined($ReactionSetHash->{$SetKey}->{$SetKey}->{$SolutionCount})) {
						$ReactionSetHash->{$SetKey}->{$SetKey}->{$SolutionCount} = 1;
						if (!defined($ReactionSetHash->{$SetKey}->{$SetKey}->{"COUNT"})) {
							$ReactionSetHash->{$SetKey}->{$SetKey}->{"COUNT"} = 0;
						}
						$ReactionSetHash->{$SetKey}->{$SetKey}->{"COUNT"}++;
					}
					$ReactionSetHash->{$SetKey}->{$Solution}->{$SolutionCount} = 1;
					if (!defined($ReactionSetHash->{$SetKey}->{$Solution}->{"COUNT"})) {
						$ReactionSetHash->{$SetKey}->{$Solution}->{"COUNT"} = 0;
					}
					$ReactionSetHash->{$SetKey}->{$Solution}->{"COUNT"}++;
				}
				$SolutionCount++;
			}
		}

		#Handling the scenario where no solutions were found
		if ($SolutionCount == 0) {
			print STDERR "FIGMODEL:SolutionReconciliation: Reconciliation unsuccessful. No solution found.\n\n";
			return 0;
		}

		#Printing results without solution performance figures. Also printing solution test file
		open (RECONCILIATION, ">$OutputFilename");
		#Printing the file heading
		print RECONCILIATION "DATABASE;DEFINITION;REVERSIBLITY;DELTAG;DIRECTION;NUMBER OF SOLUTIONS";
		for (my $i=0; $i < $SolutionCount; $i++) {
			print RECONCILIATION ";Solution ".$i;
		}
		print RECONCILIATION "\n";
		#Printing the singlet reactions first
		my $Solutions;
		print RECONCILIATION "SINGLET REACTIONS\n";
 		my @SingletReactions = keys(%{$SingleReactionHash});
		for (my $j=0; $j < $SolutionCount; $j++) {
			$Solutions->[$j]->{"BASE"} = $j;
		}
		for (my $i=0; $i < @SingletReactions; $i++) {
			my $ReactionData;
			if (defined($ReactionDataHash->{$SingletReactions[$i]})) {
				$ReactionData = $ReactionDataHash->{$SingletReactions[$i]};
			} else {
				my $Direction = substr($SingletReactions[$i],0,1);
				if ($Direction eq "+") {
					$Direction = "=>";
				} else {
					$Direction = "<=";
				}
				my $Reaction = substr($SingletReactions[$i],1);
				$ReactionData = FIGMODELObject->load($self->figmodel()->config("reaction directory")->[0].$Reaction,"\t");
				$ReactionData->{"DIRECTIONS"}->[0] = $Direction;
				$ReactionData->{"REACTIONS"}->[0] = $Reaction;
				if (!defined($ReactionData->{"DEFINITION"}->[0])) {
					$ReactionData->{"DEFINITION"}->[0] = "UNKNOWN";
				}
				if (!defined($ReactionData->{"THERMODYNAMIC REVERSIBILITY"}->[0])) {
					$ReactionData->{"THERMODYNAMIC REVERSIBILITY"}->[0] = "UNKNOWN";
				}
				if (!defined($ReactionData->{"DELTAG"}->[0])) {
					$ReactionData->{"DELTAG"}->[0] = "UNKNOWN";
				}
				$ReactionDataHash->{$SingletReactions[$i]} = $ReactionData;
			}
			print RECONCILIATION $ReactionData->{"REACTIONS"}->[0].";".$ReactionData->{"DEFINITION"}->[0].";".$ReactionData->{"THERMODYNAMIC REVERSIBILITY"}->[0].";".$ReactionData->{"DELTAG"}->[0].";".$ReactionData->{"DIRECTIONS"}->[0].";".$SingleReactionHash->{$SingletReactions[$i]}->{"COUNT"};
			for (my $j=0; $j < $SolutionCount; $j++) {
				print RECONCILIATION ";";
				if (defined($SingleReactionHash->{$SingletReactions[$i]}->{$j})) {
					$Solutions->[$j]->{$SingletReactions[$i]} = 1;
					$Solutions->[$j]->{"BASE"} = $j;
					print RECONCILIATION "|".$j."|";
				}
			}
			print RECONCILIATION "\n";
		}
		#Printing the reaction sets with alternatives
		print RECONCILIATION "Reaction sets with alternatives\n";
		my @ReactionSets = keys(%{$ReactionSetHash});
		foreach my $ReactionSet (@ReactionSets) {
			my $NewSolutions;
			my $BaseReactions;
			my $AltList = [$ReactionSet];
			push(@{$AltList},keys(%{$ReactionSetHash->{$ReactionSet}}));
			for (my $j=0; $j < @{$AltList}; $j++) {
				my $CurrentNewSolutions;
				my $Index;
				if ($j == 0) {
					print RECONCILIATION "NEW SET\n";
				} elsif ($AltList->[$j] ne $ReactionSet) {
					print RECONCILIATION "ALTERNATIVE SET\n";
					#For each base solution in which this set is represented, we copy the base solution to the new solution
					my $NewSolutionCount = 0;
					for (my $k=0; $k < $SolutionCount; $k++) {
						if (defined($ReactionSetHash->{$ReactionSet}->{$AltList->[$j]}->{$k})) {
							if (defined($Solutions)) {
								$Index->{$k} = @{$Solutions} + $NewSolutionCount;
							} else {
								$Index->{$k} = $NewSolutionCount;
							}
							if (defined($NewSolutions) && @{$NewSolutions} > 0) {
								$Index->{$k} += @{$NewSolutions};
							}
							$CurrentNewSolutions->[$NewSolutionCount] = {};
							foreach my $Reaction (keys(%{$Solutions->[$k]})) {
								$CurrentNewSolutions->[$NewSolutionCount]->{$Reaction} = $Solutions->[$k]->{$Reaction};
							}
							$NewSolutionCount++;
						}
					}
				}
				if ($j == 0 || $AltList->[$j] ne $ReactionSet) {
					my @SingletReactions = split(/,/,$AltList->[$j]);
					for (my $i=0; $i < @SingletReactions; $i++) {
						#Adding base reactions to base solutions and set reactions the new solutions
						if ($j == 0) {
							push(@{$BaseReactions},$SingletReactions[$i]);
						} else {
							for (my $k=0; $k < @{$CurrentNewSolutions}; $k++) {
								$CurrentNewSolutions->[$k]->{$SingletReactions[$i]} = 1;
							}
						}
						#Getting reaction data and printing reaction in output file
						my $ReactionData;
						if (defined($ReactionDataHash->{$SingletReactions[$i]})) {
							$ReactionData = $ReactionDataHash->{$SingletReactions[$i]};
						} else {
							my $Direction = substr($SingletReactions[$i],0,1);
							if ($Direction eq "+") {
								$Direction = "=>";
							} else {
								$Direction = "<=";
							}
							my $Reaction = substr($SingletReactions[$i],1);
							$ReactionData = FIGMODELObject->load($self->figmodel()->config("reaction directory")->[0].$Reaction,"\t");
							$ReactionData->{"DIRECTIONS"}->[0] = $Direction;
							$ReactionData->{"REACTIONS"}->[0] = $Reaction;
							if (!defined($ReactionData->{"DEFINITION"}->[0])) {
								$ReactionData->{"DEFINITION"}->[0] = "UNKNOWN";
							}
							if (!defined($ReactionData->{"THERMODYNAMIC REVERSIBILITY"}->[0])) {
								$ReactionData->{"THERMODYNAMIC REVERSIBILITY"}->[0] = "UNKNOWN";
							}
							if (!defined($ReactionData->{"DELTAG"}->[0])) {
								$ReactionData->{"DELTAG"}->[0] = "UNKNOWN";
							}
							$ReactionDataHash->{$SingletReactions[$i]} = $ReactionData;
						}
						print RECONCILIATION $ReactionData->{"REACTIONS"}->[0].";".$ReactionData->{"DEFINITION"}->[0].";".$ReactionData->{"THERMODYNAMIC REVERSIBILITY"}->[0].";".$ReactionData->{"DELTAG"}->[0].";".$ReactionData->{"DIRECTIONS"}->[0].";".$ReactionSetHash->{$ReactionSet}->{$AltList->[$j]}->{"COUNT"};
						for (my $k=0; $k < $SolutionCount; $k++) {
							print RECONCILIATION ";";
							if (defined($ReactionSetHash->{$ReactionSet}->{$AltList->[$j]}->{$k})) {
								if ($j == 0) {
									print RECONCILIATION "|".$k."|";
								} else {
									print RECONCILIATION "|".$Index->{$k}."|";
								}
							}
						}
						print RECONCILIATION "\n";
					}
					#Adding the current new solutions to the new solutions array
					if (defined($CurrentNewSolutions) && @{$CurrentNewSolutions} > 0) {
						push(@{$NewSolutions},@{$CurrentNewSolutions});
					}
				}
			}
			#Adding the base reactions to all existing solutions
			for (my $j=0; $j < @{$Solutions}; $j++) {
				if (defined($ReactionSetHash->{$ReactionSet}->{$ReactionSet}->{$Solutions->[$j]->{"BASE"}})) {
					foreach my $SingleReaction (@{$BaseReactions}) {
						$Solutions->[$j]->{$SingleReaction} = 1;
					}
				}
			}
			#Adding the new solutions to the set of existing solutions
			push(@{$Solutions},@{$NewSolutions});
		}
		close(RECONCILIATION);
		#Now printing a file that defines all of the solutions in a format the testsolutions function understands
		open (RECONCILIATION, ">$OutputFilenameTwo");
		print RECONCILIATION "Experiment;Solution index;Solution cost;Solution reactions\n";
		for (my $i=0; $i < @{$Solutions}; $i++) {
			delete($Solutions->[$i]->{"BASE"});
			print RECONCILIATION "SR".$i.";".$i.";10;".join(",",keys(%{$Solutions->[$i]}))."\n";
		}
		close(RECONCILIATION);

		$GrowMatchTable = $self->figmodel()->database()->LockDBTable("GROWMATCH TABLE");
		$Row = $GrowMatchTable->get_row_by_key($self->genome(),"ORGANISM",1);
		$Row->{"GF RECON TESTING TIMING"}->[0] = time()."-";
		$Row->{"GF RECON SOLUTIONS"}->[0] = @{$Solutions};
		$GrowMatchTable->save();
		$self->figmodel()->database()->UnlockDBTable("GROWMATCH TABLE");

		#Scheduling the solution testing
		if ($GapFill == 1) {
			system($self->figmodel()->config("scheduler executable")->[0]." \"add:testsolutions?".$self->id().$self->selected_version()."?-1?GFSR:BACK:fast:QSUB\"");
		} else {
			system($self->figmodel()->config("scheduler executable")->[0]." \"add:testsolutions?".$self->id().$self->selected_version()."?-1?GGSR:BACK:fast:QSUB\"");
		}
	} else {
		#Reading in the solution testing results
		my $Data;
		if ($GapFill == 1) {
			$Data = $self->figmodel()->database()->load_single_column_file($self->directory().$self->id().$self->selected_version()."-GFSREM.txt","");
		} else {
			$Data = $self->figmodel()->database()->load_single_column_file($self->directory().$self->id().$self->selected_version()."-GGSREM.txt","");
		}

		#Reading in the preliminate reconciliation report
		my $OutputData = $self->figmodel()->database()->load_single_column_file($OutputFilename,"");
		#Replacing the file tags with actual performance data
		my $Count = 0;
		for (my $i=0; $i < @{$Data}; $i++) {
			if ($Data->[$i] =~ m/^SR(\d+);.+;(\d+\/\d+);/) {
				my $Index = $1;
				my $Performance = $Index."/".$2;
				for (my $j=0; $j < @{$OutputData}; $j++) {
					$OutputData->[$j] =~ s/\|$Index\|/$Performance/g;
				}
			}
		}
		$self->figmodel()->database()->print_array_to_file($OutputFilename,$OutputData);

		my $GrowMatchTable = $self->figmodel()->database()->LockDBTable("GROWMATCH TABLE");
		my $Row = $GrowMatchTable->get_row_by_key($self->genome(),"ORGANISM",1);
		$Row->{"GF RECON TESTING TIMING"}->[0] .= time();
		$GrowMatchTable->save();
		$self->figmodel()->database()->UnlockDBTable("GROWMATCH TABLE");
	}

	return 1;
}

=head3 BuildSpecificBiomassReaction
Definition:
	FIGMODELmodel->BuildSpecificBiomassReaction();
Description:
=cut
sub BuildSpecificBiomassReaction {
	my ($self) = @_;

	my $biomassrxn;
	my $OrganismID = $self->genome();
	#Checking for a biomass override
	if (defined($self->config("biomass reaction override")->{$OrganismID})) {
		my $biomassID = $self->config("biomass reaction override")->{$OrganismID};
		my $tbl = $self->database()->get_table("BIOMASS",1);
		$biomassrxn = $tbl->get_row_by_key($biomassID,"DATABASE");
		print "Overriding biomass template and selecting ".$biomassID." for ".$OrganismID.".\n";
	} else {#Creating biomass reaction from the template
		#Getting the genome stats
		my $genomestats = $self->figmodel()->get_genome_stats($self->genome());
		my $Class = $genomestats->{CLASS}->[0];
		my $Name = $genomestats->{NAME}->[0];

		#Checking for phoenix variants
		my $PhoenixVariantTable = $self->figmodel()->database()->GetDBTable("Phoenix variants table");
		my $Phoenix = 0;
		my @Rows = $PhoenixVariantTable->get_rows_by_key($OrganismID,"GENOME");
		my $VariantHash;
		for (my $i=0; $i < @Rows; $i++) {
			$Phoenix = 1;
			if (defined($Rows[$i]->{"SUBSYSTEM"}) && defined($Rows[$i]->{"VARIANT"})) {
				$VariantHash->{$Rows[$i]->{"SUBSYSTEM"}->[0]} = $Rows[$i]->{"VARIANT"}->[0];
			}
		}

		#Collecting genome data
		my $RoleHash;
		my $FeatureTable = $self->figmodel()->GetGenomeFeatureTable($self->genome());
		for (my $i=0; $i < $FeatureTable->size(); $i++) {
			for (my $j=0; $j < @{$FeatureTable->get_row($i)->{"ROLES"}}; $j++) {
				$RoleHash->{$FeatureTable->get_row($i)->{"ROLES"}->[$j]} = 1;
				my $Subsystems = $self->figmodel()->subsystems_of_role($FeatureTable->get_row($i)->{"ROLES"}->[$j]);
				if (defined($Subsystems)) {
					for (my $k=0; $k < @{$Subsystems}; $k++) {
						if ($Phoenix == 0) {
							$VariantHash->{$Subsystems->[$k]} = 1;
						}
					}
				}
			}
		}

		#Scanning through the template item by item and determinine which biomass components should be added
		my $ComponentTypes;
		my $EquationData;
		my $BiomassReactionTemplateTable = $self->figmodel()->database()->GetDBTable("BIOMASS TEMPLATE");
		for (my $i=0; $i < $BiomassReactionTemplateTable->size(); $i++) {
			my $Row = $BiomassReactionTemplateTable->get_row($i);
			if (defined($Row->{"INCLUSION CRITERIA"}->[0]) && $Row->{"INCLUSION CRITERIA"}->[0] eq "UNIVERSAL") {
				push(@{$EquationData},$Row);
				$ComponentTypes->{$Row->{"CLASS"}->[0]}->{$Row->{"ID"}->[0]} = 1;
			} else {
				my $Criteria = $Row->{"INCLUSION CRITERIA"}->[0];
				my $End = 0;
				while ($End == 0) {
					if ($Criteria =~ m/^(.+)(AND)\{([^{^}]+)\}(.+)$/ || $Criteria =~ m/^(AND)\{([^{^}]+)\}$/ || $Criteria =~ m/^(.+)(OR)\{([^{^}]+)\}(.+)$/ || $Criteria =~ m/^(OR)\{([^{^}]+)\}$/) {
						print $Criteria."\n";
						my $Start = "";
						my $End = "";
						my $Condition = $1;
						my $Data = $2;
						if ($1 ne "AND" && $1 ne "OR") {
							$Start = $1;
							$End = $4;
							$Condition = $2;
							$Data = $3;
						}
						my $Result = "YES";
						if ($Condition eq "OR") {
							$Result = "NO";
						}
						my @Array = split(/\|/,$Data);
						for (my $j=0; $j < @Array; $j++) {
							if ($Array[$j] eq "YES" && $Condition eq "OR") {
								$Result = "YES";
								last;
							} elsif ($Array[$j] eq "NO" && $Condition eq "AND") {
								$Result = "NO";
								last;
							} elsif ($Array[$j] =~ m/^COMPOUND:(.+)/) {
								my $Match = 0;
								for (my $k=0; $k < @{$EquationData}; $k++) {
									if ($EquationData->[$k]->{"ID"}->[0] eq $1) {
										$Match = 1;
										last;
									}
								}
								if ($Match == 1 && $Condition eq "OR") {
									$Result = "YES";
									last;
								} elsif ($Match != 1 && $Condition eq "AND") {
									$Result = "NO";
									last;
								}
							} elsif ($Array[$j] =~ m/^!COMPOUND:(.+)/) {
								my $Match = 0;
								for (my $k=0; $k < @{$EquationData}; $k++) {
									if ($EquationData->[$k]->{"ID"}->[0] eq $1) {
										$Match = 1;
										last;
									}
								}
								if ($Match != 1 && $Condition eq "OR") {
									$Result = "YES";
									last;
								} elsif ($Match == 1 && $Condition eq "AND") {
									$Result = "NO";
									last;
								}
							} elsif ($Array[$j] =~ m/^NAME:(.+)/) {
								my $Comparison = $1;
								if ((!defined($Comparison) || !defined($Name) || $Name =~ m/$Comparison/) && $Condition eq "OR") {
									$Result = "YES";
									last;
								} elsif (defined($Comparison) && defined($Name) && $Name !~ m/$Comparison/ && $Condition eq "AND") {
									$Result = "NO";
									last;
								}
							} elsif ($Array[$j] =~ m/^!NAME:(.+)/) {
								my $Comparison = $1;
								if ((!defined($Comparison) || !defined($Name) || $Name !~ m/$Comparison/) && $Condition eq "OR") {
									$Result = "YES";
									last;
								} elsif (defined($Comparison) && defined($Name) && $Name =~ m/$Comparison/ && $Condition eq "AND") {
									$Result = "NO";
									last;
								}
							} elsif ($Array[$j] =~ m/^SUBSYSTEM:(.+)/) {
								my @SubsystemArray = split(/`/,$1);
								if (@SubsystemArray == 1) {
									if (defined($VariantHash->{$SubsystemArray[0]}) && $VariantHash->{$SubsystemArray[0]} ne -1 && $Condition eq "OR") {
										$Result = "YES";
										last;
									} elsif ((!defined($VariantHash->{$SubsystemArray[0]}) || $VariantHash->{$SubsystemArray[0]} eq -1) && $Condition eq "AND") {
										$Result = "NO";
										last;
									}
								} else {
									my $Match = 0;
									for (my $k=1; $k < @SubsystemArray; $k++) {
										if (defined($VariantHash->{$SubsystemArray[0]}) && $VariantHash->{$SubsystemArray[0]} eq $SubsystemArray[$k]) {
											$Match = 1;
											last;
										}
									}
									if ($Match == 1 && $Condition eq "OR") {
										$Result = "YES";
										last;
									} elsif ($Match != 1 && $Condition eq "AND") {
										$Result = "NO";
										last;
									}
								}
							} elsif ($Array[$j] =~ m/^!SUBSYSTEM:(.+)/) {
								my @SubsystemArray = split(/`/,$1);
								if (@SubsystemArray == 1) {
									if ((!defined($VariantHash->{$SubsystemArray[0]}) || $VariantHash->{$SubsystemArray[0]} eq -1) && $Condition eq "OR") {
										$Result = "YES";
										last;
									} elsif (defined($VariantHash->{$SubsystemArray[0]}) && $VariantHash->{$SubsystemArray[0]} ne -1 && $Condition eq "AND") {
										$Result = "NO";
										last;
									}
								} else {
									my $Match = 0;
									for (my $k=1; $k < @SubsystemArray; $k++) {
										if (defined($VariantHash->{$SubsystemArray[0]}) && $VariantHash->{$SubsystemArray[0]} eq $SubsystemArray[$k]) {
											$Match = 1;
											last;
										}
									}
									if ($Match != 1 && $Condition eq "OR") {
										$Result = "YES";
										last;
									} elsif ($Match == 1 && $Condition eq "AND") {
										$Result = "NO";
										last;
									}
								}
							} elsif ($Array[$j] =~ m/^ROLE:(.+)/) {
								if (defined($RoleHash->{$1}) && $Condition eq "OR") {
									$Result = "YES";
									last;
								} elsif (!defined($RoleHash->{$1}) && $Condition eq "AND") {
									$Result = "NO";
									last;
								}
							} elsif ($Array[$j] =~ m/^!ROLE:(.+)/) {
								if (!defined($RoleHash->{$1}) && $Condition eq "OR") {
									$Result = "YES";
									last;
								} elsif (defined($RoleHash->{$1}) && $Condition eq "AND") {
									$Result = "NO";
									last;
								}
							} elsif ($Array[$j] =~ m/^CLASS:(.+)/) {
								if ($Class eq $1 && $Condition eq "OR") {
									$Result = "YES";
									last;
								} elsif ($Class ne $1 && $Condition eq "AND") {
									$Result = "NO";
									last;
								}
							} elsif ($Array[$j] =~ m/^!CLASS:(.+)/) {
								if ($Class ne $1 && $Condition eq "OR") {
									$Result = "YES";
									last;
								} elsif ($Class eq $1 && $Condition eq "AND") {
									$Result = "NO";
									last;
								}
							}
						}
						$Criteria = $Start.$Result.$End;
						print $Criteria."\n";
					} else {
						$End = 1;
						last;
					}
				}
				if ($Criteria eq "YES") {
					push(@{$EquationData},$Row);
					$ComponentTypes->{$Row->{"CLASS"}->[0]}->{$Row->{"ID"}->[0]} = 1;
				}
			}
		}

		#Building biomass equation
		my %Reactants;
		my %Products;
		foreach my $EquationRow (@{$EquationData}) {
			#First determine what the coefficient should be
			my $Coefficient;
			if (defined($EquationRow->{"COEFFICIENT"}) && $EquationRow->{"COEFFICIENT"}->[0] =~ m/^[0-9\.]+$/) {
				$Coefficient = $EquationRow->{"COEFFICIENT"}->[0];
			} elsif (defined($EquationRow->{"COEFFICIENT"}) && $EquationRow->{"COEFFICIENT"}->[0] =~ m/cpd\d\d\d\d\d/) {
				$Coefficient = 0;
				my @CompoundList = split(/,/,$EquationRow->{"COEFFICIENT"}->[0]);
				foreach my $Compound (@CompoundList) {
					if (defined($Reactants{$Compound})) {
						$Coefficient += $Reactants{$Compound};
					}
				}
			} elsif (defined($EquationRow->{"COEFFICIENT"}) && $EquationRow->{"COEFFICIENT"}->[0] =~ m/^([0-9\.]+)\/(.+)$/) {
				my @Keys = keys(%{$ComponentTypes->{$2}});
				my $MW = 1;
				my $CompoundData = $self->figmodel()->LoadObject($EquationRow->{"ID"}->[0]);
				if (defined($CompoundData->{"MASS"})) {
					$MW = $CompoundData->{"MASS"}->[0];
				}
				$Coefficient = $1/@Keys/$MW;
			}
			if (defined($EquationRow->{"REACTANT"}) && $EquationRow->{"REACTANT"}->[0] eq "YES") {
				if (defined($Reactants{$EquationRow->{"ID"}->[0]})) {
					$Reactants{$EquationRow->{"ID"}->[0]} += $Coefficient;
				} elsif (defined($Products{$EquationRow->{"ID"}->[0]}) && $Products{$EquationRow->{"ID"}->[0]} > $Coefficient) {
					$Products{$EquationRow->{"ID"}->[0]} -= $Coefficient;
				} elsif (defined($Products{$EquationRow->{"ID"}->[0]}) && $Products{$EquationRow->{"ID"}->[0]} < $Coefficient) {
					$Reactants{$EquationRow->{"ID"}->[0]} = $Coefficient - $Products{$EquationRow->{"ID"}->[0]};
					delete $Products{$EquationRow->{"ID"}->[0]};
				} else {
					$Reactants{$EquationRow->{"ID"}->[0]} = $Coefficient;
				}
			} else {
				if (defined($Products{$EquationRow->{"ID"}->[0]})) {
					$Products{$EquationRow->{"ID"}->[0]} += $Coefficient;
				} elsif (defined($Reactants{$EquationRow->{"ID"}->[0]}) && $Reactants{$EquationRow->{"ID"}->[0]} > $Coefficient) {
					$Reactants{$EquationRow->{"ID"}->[0]} -= $Coefficient;
				} elsif (defined($Reactants{$EquationRow->{"ID"}->[0]}) && $Reactants{$EquationRow->{"ID"}->[0]} < $Coefficient) {
					$Products{$EquationRow->{"ID"}->[0]} = $Coefficient - $Reactants{$EquationRow->{"ID"}->[0]};
					delete $Reactants{$EquationRow->{"ID"}->[0]};
				} else {
					$Products{$EquationRow->{"ID"}->[0]} = $Coefficient;
				}
			}
		}
		my $Equation = "";
		my @ReactantList = sort(keys(%Reactants));
		for (my $i=0; $i < @ReactantList; $i++) {
			if (length($Equation) > 0) {
				$Equation .= " + ";
			}
			$Equation .= $self->figmodel()->format_coefficient($Reactants{$ReactantList[$i]})." ".$ReactantList[$i];
		}
		$Equation .= " => ";
		my $First = 1;
		@ReactantList = sort(keys(%Products));
		for (my $i=0; $i < @ReactantList; $i++) {
			if ($First == 0) {
				$Equation .= " + ";
			}
			$First = 0;
			$Equation .= $self->figmodel()->format_coefficient($Products{$ReactantList[$i]})." ".$ReactantList[$i];
		}

		#Adding the biomass equation to the biomass table
		my $NewRow = $self->figmodel()->add_biomass_reaction($Equation,$self->id(),"Template:".$self->genome());
		$biomassrxn = $NewRow;
	}
	return $biomassrxn;
}

=head3 PrintSBMLFile
Definition:
	FIGMODELmodel->PrintSBMLFile();
Description:
	Printing file with model data in SBML format
=cut
sub PrintSBMLFile {
	my($self) = @_;

	#Opening the SBML file for printing
	my $Filename = $self->config("SBML files")->[0].$self->id().".xml";
	if ($self->owner() ne "master") {
		if (!-d $self->config("SBML files")->[0].$self->owner()."/") {
			system("mkdir ".$self->config("SBML files")->[0].$self->owner()."/");
		}
		$Filename = $self->config("SBML files")->[0].$self->owner()."/".$self->id().".xml";
	}
	if (!open (SBMLOUTPUT, ">$Filename")) {
		return;
	}

	#Loading and parsing the model data
	my $ModelTable = $self->reaction_table();
	if (!defined($ModelTable) || !defined($ModelTable->{"array"})) {
		print "Failed to load ".$self->id()."\n";
		return;
	}

	#Adding intracellular metabolites that also need exchange fluxes to the exchange hash
	my $ExchangeHash = {"cpd11416" => "c"};

	my %CompartmentsPresent;
	$CompartmentsPresent{"c"} = 1;
	my %CompoundList;
	my @ReactionList;
	my $ReactionTable = $self->figmodel()->database()->GetDBTable("REACTIONS");
	for (my $i=0; $i < $ModelTable->size(); $i++) {
		my $Reaction = $ModelTable->get_row($i)->{"LOAD"}->[0];
		if (defined($ReactionTable->get_row_by_key($Reaction,"DATABASE")) && defined($ReactionTable->get_row_by_key($Reaction,"DATABASE")->{"EQUATION"}->[0])) {
			push(@ReactionList,$Reaction);
			$_ = $ReactionTable->get_row_by_key($Reaction,"DATABASE")->{"EQUATION"}->[0];
			my @MatchArray = /(cpd\d\d\d\d\d)/g;
			for (my $j=0; $j < @MatchArray; $j++) {
				$CompoundList{$MatchArray[$j]}->{"c"} = 1;
			}
			$_ = $ReactionTable->get_row_by_key($Reaction,"DATABASE")->{"EQUATION"}->[0];
			@MatchArray = /(cpd\d\d\d\d\d\[\D\])/g;
			for (my $j=0; $j < @MatchArray; $j++) {
				if ($MatchArray[$j] =~ m/(cpd\d\d\d\d\d)\[(\D)\]/) {
					$CompartmentsPresent{lc($2)} = 1;
					$CompoundList{$1}->{lc($2)} = 1;
				}
			}
		}
	}

	#Printing header to SBML file
	my $ModelName = $self->id();
	$ModelName =~ s/\./_/;
	print SBMLOUTPUT '<?xml version="1.0" encoding="UTF-8"?>'."\n";
    print SBMLOUTPUT '<sbml xmlns="http://www.sbml.org/sbml/level2" level="2" version="1" xmlns:html="http://www.w3.org/1999/xhtml">' . "\n";
    if (defined($self->figmodel()->database()->GetDBTable("MODEL STATS")->{$self->id()}->[0]->{"Organism name"}->[0])) {
    	print SBMLOUTPUT '<model id="'.$ModelName.'" name="'.$self->figmodel()->database()->GetDBTable("MODEL STATS")->{$self->id()}->[0]->{"Organism name"}->[0].' SEED model">'."\n";
    } else {
    	print SBMLOUTPUT '<model id="'.$ModelName.'" name="'.$self->id().' SEED model">'."\n";
    }

	#Printing the unit data
	print SBMLOUTPUT "<listOfUnitDefinitions>\n";
    print SBMLOUTPUT "\t<unitDefinition id=\"mmol_per_gDW_per_hr\">\n";
    print SBMLOUTPUT "\t\t<listOfUnits>\n";
    print SBMLOUTPUT "\t\t\t<unit kind=\"mole\" scale=\"-3\"/>\n";
    print SBMLOUTPUT "\t\t\t<unit kind=\"gram\" exponent=\"-1\"/>\n";
    print SBMLOUTPUT "\t\t\t<unit kind=\"second\" multiplier=\".00027777\" exponent=\"-1\"/>\n";
    print SBMLOUTPUT "\t\t</listOfUnits>\n";
    print SBMLOUTPUT "\t</unitDefinition>\n";
	print SBMLOUTPUT "</listOfUnitDefinitions>\n";

    #Printing compartments for SBML file
    print SBMLOUTPUT '<listOfCompartments>'."\n";
    foreach my $Compartment (keys(%CompartmentsPresent)) {
    	if (defined($self->figmodel()->database()->GetDBTable("COMPARTMENTS")->{$Compartment}->[0]->{"Name"}->[0])) {
    		my @OutsideList = split(/\//,$self->figmodel()->database()->GetDBTable("COMPARTMENTS")->{$Compartment}->[0]->{"Outside"}->[0]);
    		my $Printed = 0;
    		foreach my $Outside (@OutsideList) {
				if (defined($CompartmentsPresent{$Outside}) && defined($self->figmodel()->database()->GetDBTable("COMPARTMENTS")->{$Outside}->[0]->{"Name"}->[0])) {
    				print SBMLOUTPUT '<compartment id="'.$self->figmodel()->database()->GetDBTable("COMPARTMENTS")->{$Compartment}->[0]->{"Name"}->[0].'" outside="'.$self->figmodel()->database()->GetDBTable("COMPARTMENTS")->{$Outside}->[0]->{"Name"}->[0].'"/>'."\n";
    				$Printed = 1;
    				last;
    			}
    		}
    		if ($Printed eq 0) {
	    		print SBMLOUTPUT '<compartment id="'.$self->figmodel()->database()->GetDBTable("COMPARTMENTS")->{$Compartment}->[0]->{"Name"}->[0].'"/>'."\n";
 			}
    	}
    }
    print SBMLOUTPUT '</listOfCompartments>'."\n";

    #Printing the list of metabolites involved in the model
	print SBMLOUTPUT '<listOfSpecies>'."\n";
    foreach my $Compound (keys(%CompoundList)) {
    	my $Name = $Compound;
		my $Formula = "";
		if (defined($self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"FORMULA"}->[0])) {
			$Formula = $self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"FORMULA"}->[0];
		}
		if (defined($self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"NAME"}->[0])) {
			$Name = $self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"NAME"}->[0];
			$Name =~ s/\s/_/;
			$Name .= "_".$Formula;
		}
		$Name =~ s/[<>;&\*]//;
		my $Charge = 0;
		if (defined($self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"CHARGE"}->[0])) {
			$Charge = $self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"CHARGE"}->[0];
		}
		foreach my $Compartment (keys(%{$CompoundList{$Compound}})) {
    		if ($Compartment eq "e") {
    			$ExchangeHash->{$Compound} = "e";
    		}
    		print SBMLOUTPUT '<species id="'.$Compound.'_'.$Compartment.'" name="'.$Name.'" compartment="'.$self->figmodel()->database()->GetDBTable("COMPARTMENTS")->{$Compartment}->[0]->{"Name"}->[0].'" charge="'.$Charge.'" boundaryCondition="false"/>'."\n";
    	}
    }
	#Printing the boundary species
	foreach my $Compound (keys(%{$ExchangeHash})) {
		my $Name = $Compound;
		my $Formula = "";
		if (defined($self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"FORMULA"}->[0])) {
			$Formula = $self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"FORMULA"}->[0];
		}
		if (defined($self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"NAME"}->[0])) {
			$Name = $self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"NAME"}->[0];
			$Name =~ s/\s/_/;
			$Name .= "_".$Formula;
		}
		$Name =~ s/[<>;&\*]//;
		my $Charge = 0;
		if (defined($self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"CHARGE"}->[0])) {
			$Charge = $self->figmodel()->database()->GetDBTable("COMPOUNDS")->{$Compound}->[0]->{"CHARGE"}->[0];
		}
		print SBMLOUTPUT '<species id="'.$Compound.'_b" name="'.$Name.'" compartment="Extracellular" charge="'.$Charge.'" boundaryCondition="true"/>'."\n";
	}
    print SBMLOUTPUT '</listOfSpecies>'."\n";

    #Printing the list of reactions involved in the model
	my $ObjectiveCoef;
    print SBMLOUTPUT '<listOfReactions>'."\n";
	foreach my $Reaction (@ReactionList) {
    	$ObjectiveCoef = "0.0";
		if (defined($self->figmodel()->database()->GetDBTable("REACTIONS")->{$Reaction}->[0]->{"EQUATION"}->[0])) {
    		if ($Reaction =~ m/^bio/) {
				$ObjectiveCoef = "1.0";
			}
			my $LowerBound = -10000;
    		my $UpperBound = 10000;
			my ($Reactants,$Products) = $self->figmodel()->GetReactionSubstrateData($Reaction);
	    	my $Name = $Reaction;
	    	if (defined($self->figmodel()->database()->GetDBTable("REACTIONS")->{$Reaction}->[0]->{"NAME"}->[0])) {
	    		$Name = $self->figmodel()->database()->GetDBTable("REACTIONS")->{$Reaction}->[0]->{"NAME"}->[0];
				$Name =~ s/[<>;&]//g;
	    	}
	    	my $Reversibility = "true";
	    	if (defined($ModelTable->{$Reaction}->[0]->{"DIRECTIONALITY"}->[0])) {
	    		if ($ModelTable->{$Reaction}->[0]->{"DIRECTIONALITY"}->[0] ne "<=>") {
	    			$LowerBound = 0;
					$Reversibility = "false";
	    		}
	    		if ($ModelTable->{$Reaction}->[0]->{"DIRECTIONALITY"}->[0] eq "<=") {
	    			my $Temp = $Products;
	    			$Products = $Reactants;
	    			$Reactants = $Temp;
	    		}
	    	}
	 		print SBMLOUTPUT '<reaction id="'.$Reaction.'" name="'.$Name.'" reversible="'.$Reversibility.'">'."\n";
	 		print SBMLOUTPUT "<notes>\n";
			my $ECData = "";
			if (defined($self->figmodel()->database()->GetDBTable("REACTIONS")->{$Reaction}->[0]->{"ENZYME"}->[0])) {
	 			$ECData = $self->figmodel()->database()->GetDBTable("REACTIONS")->{$Reaction}->[0]->{"ENZYME"}->[0];
	 		}
			my $SubsystemData = "";
			if (defined($ModelTable->{$Reaction}->[0]->{"SUBSYSTEM"}->[0])) {
				$SubsystemData = $ModelTable->{$Reaction}->[0]->{"SUBSYSTEM"}->[0];
			}
			my $GeneAssociation = "";
			my $ProteinAssociation = "";
			if (defined($ModelTable->{$Reaction}->[0]->{"ASSOCIATED PEG"}->[0])) {
				if (@{$ModelTable->{$Reaction}->[0]->{"ASSOCIATED PEG"}} == 1 && $ModelTable->{$Reaction}->[0]->{"ASSOCIATED PEG"}->[0] !~ m/\+/) {
					$GeneAssociation = $ModelTable->{$Reaction}->[0]->{"ASSOCIATED PEG"}->[0];
				} else {
					if (@{$ModelTable->{$Reaction}->[0]->{"ASSOCIATED PEG"}} > 1) {
						$GeneAssociation = "( ";
					}
					for (my $i=0; $i < @{$ModelTable->{$Reaction}->[0]->{"ASSOCIATED PEG"}}; $i++) {
						if ($i > 0) {
							$GeneAssociation .= " )  or  ( ";
						}
						$GeneAssociation .= $ModelTable->{$Reaction}->[0]->{"ASSOCIATED PEG"}->[$i];
					}
					if (@{$ModelTable->{$Reaction}->[0]->{"ASSOCIATED PEG"}} > 1) {
						$GeneAssociation .= " )";
					}
				}
				$GeneAssociation =~ s/\+/  and  /g;
				if ($GeneAssociation =~ m/\sor\s/ || $GeneAssociation =~ m/\sand\s/) {
					$GeneAssociation = "( ".$GeneAssociation." )";
				}
				$ProteinAssociation = $GeneAssociation;
				if (defined($self->figmodel()->database()->GetDBTable("MODEL STATS")->{$self->id()}->[0]->{"Genome ID"}->[0])) {
					$ProteinAssociation = $self->figmodel()->translate_gene_to_protein($ModelTable->{$Reaction}->[0]->{"ASSOCIATED PEG"}->[0],$self->figmodel()->database()->GetDBTable("MODEL STATS")->{$self->id()}->[0]->{"Genome ID"}->[0]);
				}
			}
			print SBMLOUTPUT "<html:p>GENE_ASSOCIATION:".$GeneAssociation."</html:p>\n";
			print SBMLOUTPUT "<html:p>PROTEIN_ASSOCIATION:".$ProteinAssociation."</html:p>\n";
			print SBMLOUTPUT "<html:p>SUBSYSTEM: ".$SubsystemData."</html:p>\n";
			print SBMLOUTPUT "<html:p>PROTEIN_CLASS: ".$ECData."</html:p>\n";
	 		print SBMLOUTPUT "</notes>\n";
	 		print SBMLOUTPUT "<listOfReactants>\n";
	 		foreach my $Reactant (@{$Reactants}) {
	 			print SBMLOUTPUT '<speciesReference species="'.$Reactant->{"DATABASE"}->[0]."_".$Reactant->{"COMPARTMENT"}->[0].'" stoichiometry="'.$Reactant->{"COEFFICIENT"}->[0].'"/>'."\n";
	 		}
	 		print SBMLOUTPUT "</listOfReactants>\n";
	 		print SBMLOUTPUT "<listOfProducts>\n";
			foreach my $Product (@{$Products}) {
	 			print SBMLOUTPUT '<speciesReference species="'.$Product->{"DATABASE"}->[0]."_".$Product->{"COMPARTMENT"}->[0].'" stoichiometry="'.$Product->{"COEFFICIENT"}->[0].'"/>'."\n";
	 		}
			print SBMLOUTPUT "</listOfProducts>\n";
			print SBMLOUTPUT "<kineticLaw>\n";
            print SBMLOUTPUT "\t<math xmlns=\"http://www.w3.org/1998/Math/MathML\">\n";
            print SBMLOUTPUT "\t\t\t<ci> FLUX_VALUE </ci>\n";
            print SBMLOUTPUT "\t</math>\n";
            print SBMLOUTPUT "\t<listOfParameters>\n";
            print SBMLOUTPUT "\t\t<parameter id=\"LOWER_BOUND\" value=\"".$LowerBound."\" units=\"mmol_per_gDW_per_hr\"/>\n";
            print SBMLOUTPUT "\t\t<parameter id=\"UPPER_BOUND\" value=\"".$UpperBound."\" units=\"mmol_per_gDW_per_hr\"/>\n";
            print SBMLOUTPUT "\t\t<parameter id=\"OBJECTIVE_COEFFICIENT\" value=\"".$ObjectiveCoef."\"/>\n";
            print SBMLOUTPUT "\t\t<parameter id=\"FLUX_VALUE\" value=\"0.0\" units=\"mmol_per_gDW_per_hr\"/>\n";
            print SBMLOUTPUT "\t</listOfParameters>\n";
            print SBMLOUTPUT "</kineticLaw>\n";
			print SBMLOUTPUT '</reaction>'."\n";
		}
	}

	my @ExchangeList = keys(%{$ExchangeHash});
	foreach my $ExCompound (@ExchangeList) {
		my $ExCompoundName = $ExCompound;
		my $Row = $self->figmodel()->database()->GetDBTable("COMPOUNDS")->get_row_by_key($ExCompound,"DATABASE");
		if (defined($Row) && defined($Row->{"NAME"}->[0])) {
			$ExCompoundName = $Row->{"NAME"}->[0];
			$ExCompoundName =~ s/[<>;&]//g;
		}
		$ObjectiveCoef = "0.0";
		print SBMLOUTPUT '<reaction id="EX_'.$ExCompound.'_'.$ExchangeHash->{$ExCompound}.'" name="EX_'.$ExCompoundName.'_'.$ExchangeHash->{$ExCompound}.'" reversible="true">'."\n";
		print SBMLOUTPUT "\t".'<notes>'."\n";
		print SBMLOUTPUT "\t\t".'<html:p>GENE_ASSOCIATION: </html:p>'."\n";
		print SBMLOUTPUT "\t\t".'<html:p>PROTEIN_ASSOCIATION: </html:p>'."\n";
		print SBMLOUTPUT "\t\t".'<html:p>SUBSYSTEM: S_</html:p>'."\n";
		print SBMLOUTPUT "\t\t".'<html:p>PROTEIN_CLASS: </html:p>'."\n";
		print SBMLOUTPUT "\t".'</notes>'."\n";
		print SBMLOUTPUT "\t".'<listOfReactants>'."\n";
		print SBMLOUTPUT "\t\t".'<speciesReference species="'.$ExCompound.'_'.$ExchangeHash->{$ExCompound}.'" stoichiometry="1.000000"/>'."\n";
		print SBMLOUTPUT "\t".'</listOfReactants>'."\n";
		print SBMLOUTPUT "\t".'<listOfProducts>'."\n";
		print SBMLOUTPUT "\t\t".'<speciesReference species="'.$ExCompound.'_b" stoichiometry="1.000000"/>'."\n";
		print SBMLOUTPUT "\t".'</listOfProducts>'."\n";
		print SBMLOUTPUT "\t".'<kineticLaw>'."\n";
		print SBMLOUTPUT "\t\t".'<math xmlns="http://www.w3.org/1998/Math/MathML">'."\n";
		print SBMLOUTPUT "\t\t\t\t".'<ci> FLUX_VALUE </ci>'."\n";
		print SBMLOUTPUT "\t\t".'</math>'."\n";
		print SBMLOUTPUT "\t\t".'<listOfParameters>'."\n";
		print SBMLOUTPUT "\t\t\t".'<parameter id="LOWER_BOUND" value="-10000.000000" units="mmol_per_gDW_per_hr"/>'."\n";
		print SBMLOUTPUT "\t\t\t".'<parameter id="UPPER_BOUND" value="10000.000000" units="mmol_per_gDW_per_hr"/>'."\n";
		print SBMLOUTPUT "\t\t\t".'<parameter id="OBJECTIVE_COEFFICIENT" value="'.$ObjectiveCoef.'"/>'."\n";
		print SBMLOUTPUT "\t\t\t".'<parameter id="FLUX_VALUE" value="0.000000" units="mmol_per_gDW_per_hr"/>'."\n";
		print SBMLOUTPUT "\t\t".'</listOfParameters>'."\n";
		print SBMLOUTPUT "\t".'</kineticLaw>'."\n";
		print SBMLOUTPUT '</reaction>'."\n";
	}

	#Closing out the file
    print SBMLOUTPUT '</listOfReactions>'."\n";
    print SBMLOUTPUT '</model>'."\n";
    print SBMLOUTPUT "</sbml>\n";
	close(SBMLOUTPUT);
}

=head3 PrintModelSimpleReactionTable
Definition:
	success()/fail() FIGMODELmodel->PrintModelSimpleReactionTable();
Description:
	Prints the table of model data
=cut
sub PrintModelSimpleReactionTable {
	my ($self) = @_;
	
	my $rxntbl = $self->reaction_table();
	my $tbl = $self->create_table_prototype("ModelSimpleReactionTable");
	for (my $i=0; $i < $rxntbl->size(); $i++) {
		my $row = $rxntbl->get_row($i);
		$row->{DATABASE} = $row->{LOAD};
		$tbl->add_row($row);
	}
	$tbl->save();
	system("cp ".$tbl->filename()." ".$self->figmodel()->config("Model table download directory")->[0].$self->figmodel()->config("ModelSimpleReactionTable")->{filename_prefix}->[0]."-".$self->id().".txt");
}

=head3 PrintModelLPFile
Definition:
	success()/fail() FIGMODELmodel->PrintModelLPFile();
Description:
	Prints the lp file needed to run the model using the mpifba program
=cut
sub PrintModelLPFile {
	my ($self) = @_;
	#Printing lp and key file for model
	my $UniqueFilename = $self->figmodel()->filename();
	#Printing the standard FBA file
	system($self->figmodel()->GenerateMFAToolkitCommandLineCall($UniqueFilename,$self->id(),"NoBounds",["ProdFullFBALP"],undef,$self->id().$self->selected_version()."-LPPrint.log",undef,$self->selected_version()));
	system("cp ".$self->config("MFAToolkit output directory")->[0].$UniqueFilename."/CurrentProblem.lp ".$self->directory()."FBA-".$self->id().$self->selected_version().".lp");
	my $KeyTable = FIGMODELTable::load_table($self->config("MFAToolkit output directory")->[0].$UniqueFilename."/VariableKey.txt",";","|",0,undef);
	if (!defined($KeyTable)) {
		print STDERR "FIGMODEL:RunAllStudiesWithDataFast: ".$self->id()." LP file could not be printed.\n";
		return 0;
	}
	$KeyTable->headings(["Variable type","Variable ID"]);
	$KeyTable->save($self->directory()."FBA-".$self->id().$self->selected_version().".key");
	unlink($self->config("database message file directory")->[0].$self->id().$self->selected_version()."-LPPrint.log");
	$self->figmodel()->clearing_output($UniqueFilename,"FBA-".$self->id().$self->selected_version().".lp");
}

=head3 patch_model
Definition:
	FIGMODELTable:patch results = FIGMODELmodel->patch_model(FIGMODELTable:patch table);
Description:
=cut
sub patch_model {
	my ($self,$tbl) = @_;
	
	#Instantiating table
	my $results = FIGMODELTable->new(["Reactions","New genes","Old genes","Genes","Roles","Status"],$self->directory()."PatchResults-".$self->id().$self->selected_version().".tbl",["Reaction"],"\t",";",undef);
	#Getting genome annotations
	my $features = $self->figmodel()->database()->get_genome_feature_table($self->genome());
	#Gettubg reaction table
	my $reactions = $self->reaction_table();
	#Checking for patched roles
	for (my $i=0; $i < $tbl->size(); $i++) {
		my $row = $tbl->get_row($i);
		my @genes = $features->get_rows_by_key($row->{ROLE}->[0],"ROLES");
		if (@genes > 0) {
			for (my $j=0; $j < @{$row->{REACTIONS}};$j++) {
				my $resultrxn = $results->get_row_by_key($row->{REACTIONS}->[$j],"Reactions");
				if (!defined($resultrxn)) {
					$resultrxn = $results->add_row({"Reactions"=>[$row->{REACTIONS}->[$j]],"Roles"=>[$row->{ROLE}->[0]]});
				}
				my $rxnrow = $reactions->get_row_by_key($row->{REACTIONS}->[$j],"LOAD");
				if (defined($rxnrow) && !defined($resultrxn->{"Old genes"})) {
					$resultrxn->{"Old genes"} = $rxnrow->{"ASSOCIATED PEG"};
					if ($resultrxn->{"Old genes"}->[0] !~ m/GAP|BOF|UNIVERSAL|SPONTANEOUS/) {
						push(@{$resultrxn->{"Genes"}},@{$resultrxn->{"Old genes"}});
					}
				}
				delete $resultrxn->{"Current gene set"};
				if (defined($resultrxn->{"Genes"})) {
					push(@{$resultrxn->{"Current gene set"}},@{$resultrxn->{"Genes"}});
				}
				for (my $k=0; $k < @genes; $k++) {
					if ($genes[$k]->{ID}->[0] =~ m/(peg\.\d+)/) {
						my $gene = $1;
						my $addgene = 1;
						if (defined($resultrxn->{"Old genes"})) {
							for (my $m=0; $m < @{$resultrxn->{"Old genes"}}; $m++) {
								if ($resultrxn->{"Old genes"}->[$m] =~ m/$gene/) {
									$addgene = 0;
								}
							}
						}
						if ($addgene == 1) {
							push(@{$resultrxn->{"New genes"}},$gene);
							if ($row->{COMPLEX}->[0] ne "0" && defined($resultrxn->{"Current gene set"})) {
								my $added = 0;
								for (my $m=0; $m < @{$resultrxn->{"Current gene set"}}; $m++) {
									if ($row->{COMPLEX}->[0] eq "1") {
										$resultrxn->{"Current gene set"}->[$m] = $resultrxn->{"Current gene set"}->[$m]."+".$gene;
										$added = 1;
									} else {
										my @geneset = split(/\+/,$resultrxn->{"Current gene set"}->[$m]);
										for (my $n=0; $n < @geneset;$n++) {
											if ($self->figmodel()->colocalized_genes($geneset[$n],$gene,$self->genome()) == 1) {
												$resultrxn->{"Current gene set"}->[$m] = $resultrxn->{"Current gene set"}->[$m]."+".$gene;
												$added = 1;
												last;
											}
										}
									}
								}
								if ($added == 0) {
									push(@{$resultrxn->{"Current gene set"}},$gene);
								}
							} else {
								push(@{$resultrxn->{"Current gene set"}},$gene);
							}
						}
					}
				}
				delete $resultrxn->{"Genes"};
				push(@{$resultrxn->{"Genes"}},@{$resultrxn->{"Current gene set"}});
			}
		}
	}
	
	#Ensuring that the old model is preserved
	$self->ArchiveModel();
	#Modifing the reaction list
	for (my $i=0; $i < $results->size();$i++) {
		my $row = $results->get_row($i);
		my $rxnrow = $reactions->get_row_by_key($row->{"Reactions"}->[0],"LOAD");
		if (defined($rxnrow)) {
			$rxnrow->{"ASSOCIATED PEG"} = $row->{"Genes"};
		} else {
			$reactions->add_row({LOAD=>[$row->{"Reactions"}->[0]],DIRECTIONALITY=>[$self->figmodel()->reversibility_of_reaction($row->{"Reactions"}->[0])],COMPARTMENT=>["c"],"ASSOCIATED PEG"=>$row->{"Genes"},SUBSYSTEM=>["NONE"],CONFIDENCE=>[2],REFERENCE=>["NONE"],NOTES=>["PATCH"]});
		}
	}
	$reactions->save();
	$results->save();
	$self->update_model_stats();
	$self->PrintModelLPFile();
	$self->run_default_model_predictions();
	#Returning results
	return $results;
}

=head3 translate_genes
Definition:
	FIGMODELmodel->translate_genes();
Description:
=cut
sub translate_genes {
	my ($self) = @_;
	
	#Loading gene translations
	if (!defined($self->{_gene_aliases})) {
		#Loading gene aliases from feature table
		my $tbl = $self->figmodel()->GetGenomeFeatureTable($self->genome());
		if (defined($tbl)) {
			for (my $i=0; $i < $tbl->size(); $i++) {
				my $row = $tbl->get_row($i);
				if ($row->{ID}->[0] =~ m/(peg\.\d+)/) {
					my $geneID = $1;
					for (my $j=0; $j < @{$row->{ALIASES}}; $j++) {
						$self->{_gene_aliases}->{$row->{ALIASES}->[$j]} = $geneID;
					}
				}
			}
		}
		#Loading additional gene aliases from the database
		if (-e $self->figmodel()->config("Translation directory")->[0]."AdditionalAliases/".$self->genome().".txt") {
			my $AdditionalAliases = $self->figmodel()->database()->load_multiple_column_file($self->figmodel()->config("Translation directory")->[0]."AdditionalAliases/".$self->genome().".txt","\t");
			for (my $i=0; $i < @{$AdditionalAliases}; $i++) {
				$self->{_gene_aliases}->{$AdditionalAliases->[$i]->[1]} = $AdditionalAliases->[$i]->[0];
			}
		}
	}
	
	#Cycling through reactions and translating genes
	for (my $i=0; $i < $self->reaction_table()->size(); $i++) {
		my $row = $self->reaction_table()->get_row($i);
		if (defined($row->{"ASSOCIATED PEG"})) {
			for (my $j=0; $j < @{$row->{"ASSOCIATED PEG"}}; $j++) {
				my $Original = $row->{"ASSOCIATED PEG"}->[$j];
				$Original =~ s/\sand\s/:/g;
				$Original =~ s/\sor\s/;/g;
				my @GeneNames = split(/[,\+\s\(\):;]/,$Original);
				foreach my $Gene (@GeneNames) {
					if (length($Gene) > 0 && defined($self->{_gene_aliases}->{$Gene})) {
						my $Replace = $self->{_gene_aliases}->{$Gene};
						$Original =~ s/([^\w])$Gene([^\w])/$1$Replace$2/g;
						$Original =~ s/^$Gene([^\w])/$Replace$1/g;
						$Original =~ s/([^\w])$Gene$/$1$Replace/g;
						$Original =~ s/^$Gene$/$Replace/g;
					}
				}
				$Original =~ s/:/ and /g;
				$Original =~ s/;/ or /g;
				$row->{"ASSOCIATED PEG"}->[$j] = $Original;
			}
		}
	}
	
	#Archiving model and saving reaction table
	$self->ArchiveModel();
	$self->reaction_table()->save();
}

=head3 feature_web_data
Definition:
	string:web output for feature/model connection = FIGMODELmodel->feature_web_data(FIGMODELfeature:feature);
Description:
=cut
sub feature_web_data {
	my ($self,$feature) = @_;
	
	#First checking if the feature is in the model
	my $featureGenome = $feature->{GENOME}->[0];
	if ($feature->{GENOME}->[0] =~ m/\>(\d+\.\d+)\</) {
		$featureGenome = $1;
	}
	if ($featureGenome ne $self->genome()) {
		return "Not in model";
	}
	my $data = $self->get_feature_data($feature->{ID}->[0]);
	if (!defined($data)) {
		return "Not in model";
	}

	my $output;
	#Printing predictions
	if (defined($data->{$self->id()."PREDICTIONS"})) {
		#Parsing essentiality data
		my $essentialityData;
		if (defined($feature->{ESSENTIALITY})) {
			for (my $i=0; $i < @{$feature->{ESSENTIALITY}};$i++) {
				my @temp = split(/:/,$feature->{ESSENTIALITY}->[$i]);
				$essentialityData->{$temp[0]} = $temp[1];
			}
		}
		my $predictionHash;
		for (my $i=0; $i < @{$data->{$self->id()."PREDICTIONS"}};$i++) {
			my @temp = split(/:/,$data->{$self->id()."PREDICTIONS"}->[$i]);
			if (defined($essentialityData->{$temp[0]})) {
				if ($temp[1] eq "essential" && $essentialityData->{$temp[0]} eq "essential") {
					push(@{$predictionHash->{"Correct negative"}},$temp[0]);
				} elsif ($temp[1] eq "nonessential" && $essentialityData->{$temp[0]} eq "essential") {
					push(@{$predictionHash->{"False positive"}},$temp[0]);
				} elsif ($temp[1] eq "essential" && $essentialityData->{$temp[0]} eq "nonessential") {
					push(@{$predictionHash->{"False negative"}},$temp[0]);
				} elsif ($temp[1] eq "nonessential" && $essentialityData->{$temp[0]} eq "nonessential") {
					push(@{$predictionHash->{"Correct positive"}},$temp[0]);
				}
			} else {
				push(@{$predictionHash->{$temp[1]}},$temp[0]);
			}
		}
		foreach my $key (keys(%{$predictionHash})) {
			my $string = $key;
			$string = ucfirst($string); 
			push(@{$output},'<span title="'.join(", ",@{$predictionHash->{$key}}).'">'.$string.'</span>');
		}
	}
	
	#Printing reactions
	if (defined($data->{$self->id()."REACTIONS"})) {
		for (my $i=0; $i < @{$data->{$self->id()."REACTIONS"}};$i++) {
			my $rxnData = $self->get_reaction_data($data->{$self->id()."REACTIONS"}->[$i]);
			my $reactionString = $self->figmodel()->web()->create_reaction_link($data->{$self->id()."REACTIONS"}->[$i],join(" or ",@{$rxnData->{"ASSOCIATED PEG"}}),$self->id());
			if (defined($rxnData->{PREDICTIONS})) {
				my $predictionHash;
				for (my $i=0; $i < @{$rxnData->{PREDICTIONS}};$i++) {
					my @temp = split(/:/,$rxnData->{PREDICTIONS}->[$i]); 
					push(@{$predictionHash->{$temp[1]}},$temp[0]);
				}
				$reactionString .= "(";
				foreach my $key (keys(%{$predictionHash})) {
					if ($key eq "Essential =>") {
						$reactionString .= '<span title="Essential in '.join(",",@{$predictionHash->{$key}}).'">E=></span>,';
					} elsif ($key eq "Essential <=") {
						$reactionString .= '<span title="Essential in '.join(",",@{$predictionHash->{$key}}).'">E<=</span>,';
					} elsif ($key eq "Active =>") {
						$reactionString .= '<span title="Active in '.join(",",@{$predictionHash->{$key}}).'">A=></span>,';
					} elsif ($key eq "Active <=") {
						$reactionString .= '<span title="Active in '.join(",",@{$predictionHash->{$key}}).'">A<=</span>,';
					} elsif ($key eq "Active <=>") {
						$reactionString .= '<span title="Active in '.join(",",@{$predictionHash->{$key}}).'">A</span>,';
					} elsif ($key eq "Inactive") {
						$reactionString .= '<span title="Inactive in '.join(",",@{$predictionHash->{$key}}).'">I</span>,';
					} elsif ($key eq "Dead") {
						$reactionString .= '<span title="Dead">D</span>,';
					}
				}
				$reactionString =~ s/,$/)/;
			}
			push(@{$output},$reactionString);
		}
	}
	
	#Returning output
	return join("<br>",@{$output});
}

=head3 remove_obsolete_reactions
Definition:
	void FIGMODELmodel->remove_obsolete_reactions();
Description:
=cut
sub remove_obsolete_reactions {
	my ($self) = @_;
	
	(my $dummy,my $translation) = $self->figmodel()->put_two_column_array_in_hash($self->figmodel()->database()->load_multiple_column_file($self->figmodel()->config("Translation directory")->[0]."ObsoleteRxnIDs.txt","\t"));
	my $rxnTbl = $self->reaction_table();
	if (defined($rxnTbl)) {
		for (my $i=0; $i < $rxnTbl->size(); $i++) {
			my $row = $rxnTbl->get_row($i);
			if (defined($translation->{$row->{LOAD}->[0]}) || defined($translation->{$row->{LOAD}->[0]."r"})) {
				my $direction = $row->{DIRECTION}->[0];
				my $newRxn;
				if (defined($translation->{$row->{LOAD}->[0]."r"})) {
					$newRxn = $translation->{$row->{LOAD}->[0]."r"};
					if ($direction eq "<=") {
						$direction = "=>";
					} elsif ($direction eq "=>") {
						$direction = "<=";
					}
				} else {
					$newRxn = $translation->{$row->{LOAD}->[0]};
				}
				#Checking if the new reaction is already in the model
				my $newRow = $rxnTbl->get_row_by_key($newRxn,"LOAD");
				if (defined($newRow)) {
					#Handling direction
					if ($newRow->{DIRECTION}->[0] ne $direction) {
						$newRow->{DIRECTION}->[0] = "<=>";
					}
					push(@{$row->{"ASSOCIATED PEG"}},@{$rxnTbl->get_row($i)->{"ASSOCIATED PEG"}});
				} else {
					$rxnTbl->get_row($i)->{LOAD}->[0] = $newRxn;
					$rxnTbl->get_row($i)->{DIRECTION}->[0] = $direction;
				}
			}
		}
		$rxnTbl->save();
	}
}

1;