% SparseMat test cases
%
% Author: Jonathan Karr
% Affilitation: Covert Lab, Department of Bioengineering, Stanford University
% Last updated: 9/5/2010
classdef SparseMat_Test < TestCase
properties
inefficientWarning
end
%constructor
methods
function this = SparseMat_Test(name)
this = this@TestCase(name);
end
end
methods
function setUp(this)
this.inefficientWarning = warning('query', 'SparseMat:inefficient');
warning('off', 'SparseMat:inefficient');
end
function tearDown(this)
warning(this.inefficientWarning.state, 'SparseMat:inefficient');
end
end
%tests
methods
function testConstructor(~)
import edu.stanford.covert.util.SparseMat;
%1 argument (matrix)
mat = zeros(4,3,2);
mat(4, 3, 1)=1;
mat(3, 2, 2)=2;
mat(1, 1, 2)=3;
mat(3, 1, 1)=4;
spmat = SparseMat(mat);
[subs, vals]=find(spmat);
assertEqual([4 3 2], size(spmat));
assertEqual([3 1 1; 4 3 1; 1 1 2; 3 2 2], subs);
assertEqual([4;1;3;2], vals);
spmat = SparseMat(double(mat));
assertEqual('double', valueClass(spmat));
spmat = SparseMat(int32(mat));
assertEqual('int32', valueClass(spmat));
spmat = SparseMat(sparse(double(mat(:,:,1))));
assertEqual('double', valueClass(spmat));
spmat = SparseMat([],false(0,1), [1 1]);
assertEqual('logical', valueClass(spmat));
spmat = SparseMat([],false(0,0), [1 1]);
assertEqual('logical', valueClass(spmat));
spmat = SparseMat(false(0,1));
assertEqual('logical', valueClass(spmat));
%1 argument (struct)
assertEqual(spmat, SparseMat(struct(...
'subs', spmat.subs, 'vals', spmat.vals, 'siz', spmat.siz)));
%3 arguments
spmat = SparseMat([3 1 2; 1 2 1; 2 2 3],[1;2;3],[4 2 3]);
[subs, vals]=find(spmat);
assertEqual([1 2 1; 3 1 2; 2 2 3], subs);
assertEqual([2;1;3], vals);
assertEqual([4 2 3], size(spmat));
end
function testSubscriptReference(~)
import edu.stanford.covert.util.SparseMat;
mat=zeros(10,10);
mat(10,1)=1;
spmat=SparseMat(mat);
assertEqual(zeros(0,1), spmat(zeros(0,2)))
assertEqual(mat(sub2ind(size(mat), 10, 1)), spmat([10 1]))
assertEqual(mat(sub2ind(size(mat), [10 10 10]', [1 2 3]')), spmat([10 1; 10 2; 10 3]))
assertEqual(mat(sub2ind(size(mat), [10 10 10 2]', [2 1 1 1]')), spmat([10 2; 10 1; 10 1; 2 1]))
assertEqual(SparseMat([],[],[0 10]), spmat([],:))
assertEqual(SparseMat([],[],[0 0]), spmat([],[]))
assertEqual(SparseMat([],[],[2 10]), spmat(1:2,:))
assertEqual(SparseMat([10 1],1,[10 10]), spmat(1:10,:))
assertEqual(SparseMat([1 1; 2 1],[1;1],[4 10]), spmat([10 10 9 8],:))
assertEqual(SparseMat([1 1; 2 1; 1 3; 2 3],[1;1;1;1],[4 3]), spmat([10 10 9 8],[1 2 1]))
assertEqual(SparseMat([1 1],1,[1 10]), spmat(10,:))
assertEqual(SparseMat([10 1],1,[10 1]), spmat(:,1))
assertEqual(SparseMat([],[],[10 1]), spmat(:,2))
assertEqual(SparseMat([],[],[2 10]), spmat(1:2,:,1))
mat=false(10,10);
mat(10,1)=1;
spmat=SparseMat(mat);
assertEqual(SparseMat([],[],[2 10]), spmat(1:2,:,1))
mat=zeros(10,10);
mat(1:2,1:2)=[1 2; 3 4];
spmat=SparseMat(mat);
assertEqual(SparseMat([1 1; 2 1; 1 2; 2 2],[1;3;2;4],[2 2]), spmat(1:2,1:2))
end
function testSubscriptAssignment(~)
import edu.stanford.covert.util.SparseMat;
warning('off','SparseMat:invalidAssignment');
spmat=SparseMat([],[],[10 10]);
spmat([])=1;
assertEqual(SparseMat([],[],[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat(zeros(0,2))=1;
assertEqual(SparseMat([],[],[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat([1 1])=1;
assertEqual(SparseMat([1 1],1,[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat([1 1; 1 1])=1;
assertEqual(SparseMat([1 1],1,[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat([1 1; 1 1])=[1;2];
assertEqual(SparseMat([1 1],2,[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat(1,1)=1;
assertEqual(SparseMat([1 1],1,[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat(1:10,1:2)=[(1:10)' zeros(10,1)];
assertEqual(SparseMat([(1:10)' ones(10,1)],(1:10)',[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat(2:8,1:2)=SparseMat([2 2],3,[7 2]);
assertEqual(SparseMat([3 2],3,[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat([2 2],[1 1])=[1 2; 3 4];
assertEqual(SparseMat([2 1],4,[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat([],1)=1;
assertEqual(SparseMat([],[],[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat([],[])=1;
assertEqual(SparseMat([],[],[10 10]), spmat)
spmat=SparseMat([],[],[10 2]);
exception = [];
try
spmat(1:2,:)=ones(2,3);
catch exception
end
if isempty(exception)
throw(MException('SparseMat_Test:error', 'Syntax should not be allowed'));
end
assertEqual(SparseMat([],[],[10 2]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat(3:5,3) = [6;7;8];
assertEqual(SparseMat([3 3; 4 3; 5 3],[6;7;8],[10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat(1:2,1:2) = 1;
assertEqual(SparseMat([1 1; 2 1; 1 2; 2 2],[1;1;1;1], [10 10]), spmat)
spmat=SparseMat([],[],[10 10]);
spmat(1:2,1:2) = [1 2;3 4];
assertEqual(SparseMat([1 1; 2 1; 1 2; 2 2],[1;3;2;4], [10 10]), spmat)
end
function testSubscriptReferenceAssignment(~)
import edu.stanford.covert.util.SparseMat;
%example 1
st_x=SparseMat([],[],[10 10 1]);
st_x(10,5,1)=1;
st_x(5,7,1)=3;
st_x(8,6,1)=4;
x=st_x(:,:,:);
assertEqual(ones(10,10),double(eq(st_x, st_x(:,:,:))))
assertEqual(ones(10,10),double(eq(st_x, st_x(:,:,1))))
%example 2
fl_x=zeros([10 10 1]);
st_x=SparseMat([],[],[10 10 1]);
assertEqual(size(fl_x(1,:,:)), size(st_x(1,:,:)))
assertEqual(size(fl_x(:,1,:)), size(st_x(:,1,:)))
%example 3
fl_x=zeros([10 10 1]);
st_x=SparseMat([],[],[10 10 1]);
fl_x(3,2)=1;
st_x(3,2)=1;
assertEqual(size(fl_x(3,:,:)), size(st_x(3,:,:)))
assertEqual(size(fl_x(:,2,:)), size(st_x(:,2,:)))
%example 4
st_x=SparseMat([],[],[500 1 1]);
exception = [];
try
st_x(1:50);
catch exception
end
if isempty(exception)
throw(MException('SparseMat_Test:error', 'Linear indexing should not be valid'));
end
exception = [];
try
st_x((1:50)');
catch exception
end
if isempty(exception)
throw(MException('SparseMat_Test:error', 'Linear indexing should not be valid'));
end
%example 5
st_x=SparseMat([],[],[500 1 1]);
exception = [];
try
st_x(4,5,6);
catch exception
end
if isempty(exception)
throw(MException('SparseMat_Test:error', 'Should not be able to reference unitialized dimensions'));
end
exception = [];
try
st_x([4 5 6]);
catch exception
end
if isempty(exception)
throw(MException('SparseMat_Test:error', 'Should not be able to reference unitialized dimensions'));
end
%example 6
st_x=SparseMat([],[],[500 2 1]);
assertEqual([1 1],size(st_x(4,2,1,1)));
assertEqual([1 1],size(st_x(4,2,1,:,1)));
assertEqual([1 2],size(st_x(4,:,1,:,1)));
assertEqual([500 2],size(st_x(:,:,1,:,1)));
%example 7
st_x=SparseMat([],[],[500 2 1]);
fl_x=st_x([(1:50)' ones(50,1)]);
assertEqual('edu.stanford.covert.util.SparseMat',class(st_x(1:50,1)));
assertEqual('double',class(fl_x));
assertEqual([50 1], size(fl_x));
%example 8
st_x=SparseMat([],[],[500 2 1]);
fl_x=zeros(500,2);
assertEqual(size(fl_x([],:)), size(st_x([],:)));
assertEqual(size(fl_x([],2)), size(st_x([],2)));
assertEqual([0 1], size(st_x(zeros(0,2))));
%example 9
st_x=SparseMat([],[],[3 2]);
fl_x=zeros(3,2);
st_x(1,1)=1;
fl_x(1,1)=1;
assertEqual(fl_x([1;1],1), double(st_x([1;1],1)));
assertEqual(fl_x([1;1],:), double(st_x([1;1],:)));
assertEqual(fl_x([1;1;2],:), double(st_x([1;1;2],:)));
assertEqual(fl_x([1;2;1],:), double(st_x([1;2;1],:)));
assertEqual(fl_x([1;2;1],2), double(st_x([1;2;1],2)));
assertEqual(fl_x([1;2;2;1;3],2), double(st_x([1;2;3;1;3],2)));
assertEqual(fl_x([1;1;2;2],:), double(st_x([1;1;2;2],:)));
assertEqual(fl_x(sub2ind([3 2],[1;1],[1;1])), double(st_x([1 1; 1 1])));
assertEqual(fl_x(sub2ind([3 2],[1;1;2],[1;1;1])), double(st_x([1 1; 1 1; 2 1])));
st_x(2,2)=3;
fl_x(2,2)=3;
assertEqual(fl_x([1;1],1), double(st_x([1;1],1)));
assertEqual(fl_x([1;1],:), double(st_x([1;1],:)));
assertEqual(fl_x([1;1;2],:), double(st_x([1;1;2],:)));
assertEqual(fl_x([1;2;1],:), double(st_x([1;2;1],:)));
assertEqual(fl_x([1;2;1],2), double(st_x([1;2;1],2)));
assertEqual(fl_x([1;2;2;1;3],2), double(st_x([1;2;2;1;3],2)));
assertEqual(fl_x([1;1;2;2],:), double(st_x([1;1;2;2],:)));
assertEqual(fl_x([1;2;2;1;3],:), double(st_x([1;2;2;1;3],:)));
assertEqual(fl_x(sub2ind([3 2],[1;1],[1;1])), double(st_x([1 1; 1 1])));
assertEqual(fl_x(sub2ind([3 2],[1;1;2],[1;1;1])), double(st_x([1 1; 1 1; 2 1])));
end
function testSubscriptAssignmentReference(~)
import edu.stanford.covert.util.SparseMat;
warning('off','SparseMat:invalidAssignment');
%example 1
st_x=SparseMat([],[],[10 10 1]);
st_x(8,6,:)=4;
assertEqual([10 10],size(st_x))
%example 2
st_x=SparseMat([],[],[500 1 1]);
exception = [];
try
st_x(1:50)=1;
catch exception
end
if isempty(exception)
throw(MException('SparseMat_Test:error', 'Invalid syntax'));
end
%example 3
st_x=SparseMat([],[],[500 1 1]);
exception = [];
try
st_x((1:50)')=1;
catch exception
end
if isempty(exception)
throw(MException('SparseMat_Test:error', 'Linear indexing should not be valid'));
end
%example 4
st_x=SparseMat([],[],[100 1 1]);
st_y=SparseMat(ones(10,1));
exception = [];
try
st_x(1:10)=st_y;
catch exception
end
if isempty(exception)
throw(mexception('SparseMat_test:error', 'linear indexing should not be valid'));
end
st_z=SparseMat([],[],[100 1 1]);
exception = [];
try
st_z(1:10)=1;
catch exception
end
if isempty(exception)
throw(MException('SparseMat_Test:error', 'Invalid syntax'));
end
%example 5
st_x=SparseMat([],[],[100 1 1]);
st_y=SparseMat(ones(10,1));
exception = [];
try
st_x((1:10)')=st_y;
catch exception
end
if isempty(exception)
throw(mexception('SparseMat_test:error', 'linear indexing should not be valid'));
end
%example 6
st_x=SparseMat([],[],[100 1 1]);
st_x([(1:10)' ones(10,1)])=1;
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x([(1:10)' ones(10,1)])=SparseMat(ones(10,1));
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x([(1:10)' ones(10,1)])=ones(10,1);
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x([(1:10)' ones(10,1)])=1;
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x([(1:10)' ones(10,1)])=sparse(ones(10,1));
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x(1:10,1)=SparseMat(ones(10,1));
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x(1:10,1)=ones(10,1);
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x(1:10,1)=1;
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x(1:10,1)=sparse(ones(10,1));
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
%example 7
st_x=SparseMat([],[],[100 1 1]);
st_x([(1:10)' ones(10,1)])=SparseMat(ones(10,1));
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x([(1:10)' ones(10,1)])=ones(10,1);
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x([(1:10)' ones(10,1)])=1;
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x([(1:10)' ones(10,1)])=sparse(ones(10,1));
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x(1:10,1)=SparseMat(ones(10,1));
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x(1:10,1)=ones(10,1);
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x(1:10,1)=1;
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x(1:10,1)=sparse(ones(10,1));
assertEqual(ones(10,1), double(st_x(1:10,1)));
assertEqual([100 1],size(st_x));
%example 8
st_x=SparseMat([],[],[100 1 1]);
st_x([(1:4)' ones(4,1)])=SparseMat([1 0 1 0]');
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x([(1:4)' ones(4,1)])=[1 0 1 0]';
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x([(1:4)' ones(4,1)])=sparse([1 0 1 0]');
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x(1:4,1)=SparseMat([1 0 1 0]');
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x(1:4,1)=[1 0 1 0]';
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x(1:4,1)=sparse([1 0 1 0]');
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
%example 9
st_x=SparseMat([],[],[100 1 1]);
st_x([(1:4)' ones(4,1)])=SparseMat([1 0 1 0]');
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x([(1:4)' ones(4,1)])=[1 0 1 0]';
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x([(1:4)' ones(4,1)])=sparse([1 0 1 0]');
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x(1:4,1)=SparseMat([1 0 1 0]');
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x(1:4,1)=[1 0 1 0]';
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
st_x=SparseMat([],[],[100 1 1]);
st_x(1:4,1)=sparse([1 0 1 0]');
assertEqual([1 0 1 0]', double(st_x(1:4,1)));
assertEqual([100 1],size(st_x));
%example 10
st_x=SparseMat([],[],[100 2]);
st_x(:,:)=1;
assertEqual(ones(100,2), double(st_x));
st_x=SparseMat([],[],[4 2]);
st_x(:,:)=1;
st_x(1:2,1)=SparseMat([],[],[2 1]);
assertEqual([zeros(2,1) ones(2,1);ones(2,2)], double(st_x));
st_x=SparseMat([],[],[4 2]);
st_x(:,:)=1;
st_x(1:2,:)=0;
assertEqual([zeros(2,2);ones(2,2)], double(st_x));
st_x=SparseMat([],[],[4 2]);
st_x(:,:)=1;
st_x(1:2,1)=0;
assertEqual([zeros(2,1) ones(2,1);ones(2,2)], double(st_x));
st_x=SparseMat([],[],[100 2]);
st_x(:,:)=1;
st_x(:,:)=0;
assertEqual(SparseMat([],[],[100 2]), st_x);
%example 11
st_x=SparseMat([],[],[100 2]);
st_y=SparseMat([],[],[100 2]);
st_x(1:10,:)=1;
st_y(1:10,:)=1;
st_x([],1)=2;
assertEqual(st_y, st_x);
%example 12
st_x=SparseMat([],[],[100 2]);
st_y=SparseMat([],[],[100 2]);
st_x(1:10,:)=1;
st_y(1:10,:)=1;
st_x([],:)=2;
assertEqual(st_y, st_x);
%example 13
st_x=SparseMat([],[],[100 2]);
st_y=SparseMat([],[],[100 2]);
st_x(1:10,:)=1;
st_y(1:10,:)=1;
st_x([],:)=zeros(0,2);
assertEqual(st_y, st_x);
%example 14
st_x=SparseMat([],[],[100 2]);
st_y=SparseMat([],[],[100 2]);
st_x(1:10,:)=1;
st_y(1:10,:)=1;
st_x([],:)=SparseMat;
assertEqual(st_y, st_x);
%example 15
st_x=SparseMat([],[],[100 2]);
st_y=SparseMat([],[],[100 2]);
st_x(1:10,:)=1;
st_y(1:10,:)=1;
exception = [];
try
st_x(1,:)=SparseMat;
catch exception
end
if isempty(exception)
throw(MException('SparseMat_test:error', 'RHS cannot be null with non-null subtensor'));
end
assertEqual(st_y, st_x);
%example 16
st_x=SparseMat([],[],[100 2]);
st_y=SparseMat([],[],[100 2]);
st_x(1:10,:)=1;
st_y(1:10,:)=1;
st_x(zeros(0,2))=2;
assertEqual(st_y, st_x);
%example 17
st_x=SparseMat([],[],[100 2]);
st_y=SparseMat([],[],[100 2]);
st_x(1:10,:)=1;
st_y(1:10,:)=1;
st_x(zeros(0,2))=zeros(0,1);
assertEqual(st_y, st_x);
%example 18
st_x=SparseMat([],[],[100 2]);
st_y=SparseMat([],[],[100 2]);
st_x(1:10,:)=1;
st_y(1:10,:)=1;
exception=[];
try
st_x(ones(1,2))=[];
catch exception
end
if isempty(exception)
throw(mexception('SparseMat_test:error', 'RHS cannot be null with non-null subscripts'));
end
assertEqual(st_y, st_x);
end
function testConsistentBehavior(~)
import edu.stanford.covert.util.SparseMat;
%example 1
fl_x=zeros([2 2 1]);
st_x=SparseMat([],[],[2 2 1]);
assertEqual(size(fl_x), size(st_x));
assertEqual(size(fl_x,5),size(st_x,5));
%example 2
sp_x=sparse(zeros([10 10]));
st_x=SparseMat([],[],[10 10]);
sp_x(10,5)=1;
sp_x(5,7)=3;
sp_x(12,6)=4;
st_x(10,5)=1;
st_x(5,7)=3;
st_x(12,6)=4;
[i,j]=find(sp_x);
assertEqual([i j], find(st_x));
%example 3
fl_x=zeros([10 10 10]);
st_x=SparseMat([],[],[10 10 10]);
fl_x(10,5,3)=1;
fl_x(5,7,2)=3;
fl_x(12,6,1)=4;
fl_x(10,4,3)=1;
fl_x(5,8,2)=3;
fl_x(12,5,1)=4;
st_x(10,5,3)=1;
st_x(5,7,2)=3;
st_x(12,6,1)=4;
st_x(10,4,3)=1;
st_x(5,8,2)=3;
st_x(12,5,1)=4;
[i,j,k]=ind2sub(size(fl_x),find(fl_x));
assertEqual([i j k], find(st_x));
[~,vals]=find(st_x);
assertEqual(fl_x(find(fl_x)),vals);
end
function testInternalConsistency(~)
import edu.stanford.covert.util.SparseMat;
%example 1
st_x=SparseMat([],[],[100 1 1]);
st_y=SparseMat(ones(10,1));
st_x(1:10,1,1)=st_y;
subs=find(st_x);
assertEqual(length(size(st_x)), size(subs,2));
%example 2
st_x=SparseMat([],[],[100 1 1]);
st_y=SparseMat(ones(10,1));
st_x(1:10,1,1,1)=st_y;
subs=find(st_x);
assertEqual(length(size(st_x)), size(subs,2));
%example 3
st_x=SparseMat([],[],[500 1 1]);
st_x(1:3,1,1)=SparseMat(ones(3,1));
st_y=SparseMat([],[],[3 1 1]);
st_y(1,1,1)=3;
st_y(2,1,1)=4;
st_y(3,1,1)=5;
st_x(4:6,1,1)=st_y;
subs=find(st_x);
assertEqual(length(size(st_x)), size(subs,2));
end
function testEnd(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
assertEqual(SparseMat(mat(2:end,:,:,:)), spmat(2:end,:,:,:));
assertEqual(SparseMat(mat(:,:,end,:)), spmat(:,:,end,:));
assertEqual(SparseMat(mat(:,:,:,end-1)), spmat(:,:,:,end-1));
exception = [];
try
assertEqual(SparseMat(mat(1:end)), spmat(1:end));
catch exception
end
if isempty(exception)
throw(MException('SparseMat:unsupportedSubsref','SparseMat doesn''t support linear indexing'));
end
end
function testSub2ind(~)
import edu.stanford.covert.util.SparseMat;
inds=sub2ind([100 2 3], ...
reshape(repmat((1:100)',[1 2 3]),[],1),...
reshape(repmat(1:2,[100 1 3]),[],1),...
reshape(repmat(permute(1:3,[1 3 2]),[100 2 1]),[],1));
spmat = SparseMat([],[],[100 2 3]);
subs = [...
reshape(repmat((1:100)',[1 2 3]),[],1) ...
reshape(repmat(1:2,[100 1 3]),[],1) ...
reshape(repmat(permute(1:3,[1 3 2]),[100 2 1]),[],1)];
assertEqual(inds, sub2ind(spmat,subs));
end
function testInd2sub(~)
import edu.stanford.covert.util.SparseMat;
[i,j,k]=ind2sub([100 2 3], (1:100*2*3)');
spmat = SparseMat([],[],[100 2 3]);
assertEqual([i j k], ind2sub(spmat,(1:100*2*3)'));
end
function testSize(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
%isempty
assertEqual(false, isempty(spmat));
assertEqual(true, isempty(SparseMat));
%length
assertEqual(4, length(spmat));
%size
assertEqual([4 1 3 2], size(spmat));
assertEqual(4, size(spmat,1));
assertEqual(1, size(spmat,5));
%numel
assertEqual(4*1*3*2, numel(spmat));
%ndims
assertEqual(4, ndims(spmat));
%nnz
assertEqual(7, nnz(spmat));
%permute
assertEqual(SparseMat(permute(mat,[2 4 1 3])), permute(spmat, [2 4 1 3]));
assertEqual(SparseMat(permute(mat,[2 5 4 1 3])), permute(spmat, [2 5 4 1 3]));
%transpose
mat2 = permute(sum(mat,4),[1 3 2]);
assertEqual(SparseMat(mat2'), transpose(SparseMat(mat2)));
assertEqual(SparseMat(mat2'), SparseMat(mat2)');
%ctranspose
mat2 = permute(sum(mat,4),[1 3 2])+sqrt(-1);
assertEqual(SparseMat(ctranspose(mat2)), ctranspose(SparseMat(mat2)));
%reshape
assertEqual(SparseMat(reshape(mat,[3 2 4])), reshape(SparseMat(mat),[3 2 4]));
assertEqual(SparseMat(reshape(zeros(0,2),[0 3])), reshape(SparseMat(zeros(0,2)),[0 3]));
%repmat
assertEqual(spmat, repmat(spmat, 1, 1));
assertEqual(spmat, repmat(spmat, [1 1 1]));
assertEqual(spmat, repmat(spmat, [1 1 1 1]));
assertEqual([spmat;spmat], repmat(spmat, 2, 1));
assertEqual(SparseMat(repmat(mat,[2 3 4 1 4 3])), repmat(spmat, [2 3 4 1 4 3]));
%squeeze
assertEqual(SparseMat(squeeze(mat)), squeeze(spmat));
end
function testRepeatMatrix(~)
A = edu.stanford.covert.util.SparseMat(1);
assertEqual([1 3], size(repmat(A, 1, 3)));
assertEqual([1 3], size(repmat(A, [1 3])));
assertEqual([0 2], size(repmat(A, [0 2])));
assertEqual([1 1], size(repmat(A, [1 1 1])));
assertEqual([0 1], size(repmat(A, [0 1 1])));
assertEqual([1 0], size(repmat(A, [1 0 1])));
assertEqual([1 1 0], size(repmat(A, [1 1 0])));
end
function testFind(~)
import edu.stanford.covert.util.SparseMat;
%example 1
mat = zeros(4,3);
mat(4, 3)=1;
mat(3, 2)=2;
mat(1, 1)=3;
mat(3, 1)=4;
spmat = SparseMat(mat);
[i,j,k]=find(mat);
[subs,vals]=find(spmat);
assertEqual([i j], subs);
assertEqual(k, vals);
%example 2
mat = zeros(4,3,'int32');
mat(4, 3)=1;
mat(3, 2)=2;
mat(1, 1)=3;
mat(3, 1)=4;
spmat = SparseMat(mat);
[i,j,k]=find(mat);
[subs,vals]=find(spmat);
assertEqual([i j], subs);
assertEqual(k, vals);
end
function testRandomlySelectZeros(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,3);
mat(4, 3)=1;
mat(3, 2)=2;
mat(1, 1)=3;
mat(3, 1)=4;
spmat = SparseMat(mat);
%example 1
randomlySelectZeros(spmat,0.2);
assertEqual([2 2], size(randomlySelectZeros(spmat,2)));
%example 2
randStream = edu.stanford.covert.util.RandStream('mcg16807');
randStream.reset(1);
randomlySelectZeros(spmat, 0.2, randStream);
assertEqual([2 2], size(randomlySelectZeros(spmat, 2, randStream)));
end
%concatenation
function testConcatenation(~)
import edu.stanford.covert.util.SparseMat;
%Vertcat_nullIdentity
assertEqual(...
SparseMat,...
vertcat(SparseMat));
%Vertcat_identity
t = SparseMat([1 2; 3 3], [2;1], [3 4]);
assertEqual(t, vertcat(t));
%Vertcat_threeTensors
u = SparseMat([1 2; 3 3], [2;1], [3 4]);
v = SparseMat([6 3; 4 2; 1 4], [3;4;-1], [7 4]);
assertEqual([...
0 2 0 0;
0 0 0 0;
0 0 1 0;
0 0 0 -1;
0 0 0 0;
0 0 0 0;
0 4 0 0;
0 0 0 0;
0 0 3 0;
0 0 0 0;
0 2 0 0;
0 0 0 0;
0 0 1 0],...
double(vertcat(u, v, u)));
assertEqual([...
0 2 0 0;
0 0 0 0;
0 0 1 0;
0 0 0 -1;
0 0 0 0;
0 0 0 0;
0 4 0 0;
0 0 0 0;
0 0 3 0;
0 0 0 0;
0 2 0 0;
0 0 0 0;
0 0 1 0],...
double([u; v; u]));
%Vertcat_nullFirst
t = SparseMat([1 2; 3 3], [2;1], [3 4]);
assertEqual(...
SparseMat([5 2; 7 3], [2;1], [7 4]),...
vertcat(SparseMat([],[],[4 4]), t));
%Vertcat_nullLast
t = SparseMat([1 2; 3 3], [2;1], [3 4]);
assertEqual(...
SparseMat([1 2; 3 3], [2;1], [7 4]),...
vertcat(t, SparseMat([],[],[4 4])));
%Vertcat_zeros
assertEqual(...
SparseMat([],[],[7 2]),...
vertcat(...
SparseMat([],[],[3 2]), SparseMat([],[],[4 2])));
%Vertcat_inconsistentDimensions
assertExceptionThrown(...
@()vertcat(...
SparseMat([1 2; 3 3], [2;1], [3 3]),...
SparseMat([1 2], 3, [3 2])),...
'SparseMat:cat');
%Vertcat_threeDimensions
assertEqual(...
SparseMat([1 2 1; 3 3 1; 4 1 2], [2;1;3], [4 3 2]),...
vertcat(...
SparseMat([1 2 1; 3 3 1], [2;1], [3 3 2]),...
SparseMat([1 1 2], 3, [1 3 2])));
%Vertcat_threeInconsistentDimensions
assertExceptionThrown(...
@()vertcat(...
SparseMat([1 2 1; 3 3 1], [2;1], [3 3 1]),...
SparseMat([1 1 2], 3, [1 3 2])),...
'SparseMat:cat');
%Horzcat_nullIdentity
assertEqual(...
SparseMat,...
horzcat(SparseMat));
%Horzcat_identity
t = SparseMat([1 2; 3 3], [2;1], [3 4]);
assertEqual(t, horzcat(t));
%Horzcat_threeTensors
u = SparseMat([2 1; 3 3], [2;1], [4 3]);
v = SparseMat([3 6; 2 4; 4 1], [3;4;-1], [4 7]);
assertEqual([
0 0 0 0 0 0 0 0 0 0 0 0 0;
2 0 0 0 0 0 4 0 0 0 2 0 0;
0 0 1 0 0 0 0 0 3 0 0 0 1;
0 0 0 -1 0 0 0 0 0 0 0 0 0],...
double(horzcat(u, v, u)));
assertEqual([
0 0 0 0 0 0 0 0 0 0 0 0 0;
2 0 0 0 0 0 4 0 0 0 2 0 0;
0 0 1 0 0 0 0 0 3 0 0 0 1;
0 0 0 -1 0 0 0 0 0 0 0 0 0],...
double([u, v, u]));
%Horzcat_nullFirst
t = SparseMat([1 2; 3 3], [2;1], [3 4]);
assertEqual(...
SparseMat([1 7; 3 8], [2;1], [3 9]),...
horzcat(SparseMat([],[],[3 5]), t));
%Horzcat_nullLast
t = SparseMat([1 2; 3 3], [2;1], [3 4]);
assertEqual(...
SparseMat([1 2; 3 3], [2;1], [3 9]),...
horzcat(t, SparseMat([],[],[3 5])));
%Horzcat_zeros
assertEqual(...
SparseMat([],[],[2 7]),...
horzcat(...
SparseMat([],[],[2 3]), SparseMat([],[],[2 4])));
%Horzcat_inconsistentDimensions
assertExceptionThrown(...
@()horzcat(...
SparseMat([1 2; 3 3], [2;1], [3 3]),...
SparseMat([1 2], 3, [2 3])),...
'SparseMat:cat');
%Horzcat_threeDimensions
assertEqual(...
full(SparseMat([1 2 1; 3 3 1; 2 4 1], [2;1;3], [3 4 2])),...
full(horzcat(...
SparseMat([1 2 1; 3 3 1], [2;1], [3 3 2]),...
SparseMat([2 1 1], 3, [3 1 2]))));
%Horzcat_threeInconsistentDimensions
assertExceptionThrown(...
@()horzcat(...
SparseMat([1 2 1; 3 3 1], [2;1], [3 3 2]),...
SparseMat([2 1 1], 3, [3 1 1])),...
'SparseMat:cat');
%padarray
x = reshape(1:15,5,3);
spmat = SparseMat(x);
assertEqual(SparseMat(padarray(x,3)),padarray(spmat,3));
assertEqual(SparseMat(padarray(x,[0 2])),padarray(spmat,[0 2]));
assertEqual(SparseMat(padarray(x,[1 0 2])),padarray(spmat,[1 0 2]));
assertEqual(SparseMat(padarray(x,[1 0 0])),padarray(spmat,[1 0 0]));
assertEqual(SparseMat(padarray(x,[0 1 1],1)),padarray(spmat,[0 1 1],1));
assertEqual(SparseMat(padarray(x,[0 1 1],2,'pre')),padarray(spmat,[0 1 1],2,'pre'));
assertEqual(SparseMat(padarray(x,[0 1 1],2,'post')),padarray(spmat,[0 1 1],2,'post'));
assertEqual(SparseMat(padarray(x,[0 1 1],2,'both')),padarray(spmat,[0 1 1],2,'both'));
assertEqual(SparseMat(padarray(x,[2 2],'circular','pre')),padarray(spmat,[2 2],'circular','pre'));
assertEqual(SparseMat(padarray(x,[2 2],'replicate','pre')),padarray(spmat,[2 2],'replicate','pre'));
assertEqual(SparseMat(padarray(x,[2 2],'symmetric','pre')),padarray(spmat,[2 2],'symmetric','pre'));
assertEqual(SparseMat(padarray(x,[2 2],'circular','post')),padarray(spmat,[2 2],'circular','post'));
assertEqual(SparseMat(padarray(x,[2 2],'replicate','post')),padarray(spmat,[2 2],'replicate','post'));
assertEqual(SparseMat(padarray(x,[2 2],'symmetric','post')),padarray(spmat,[2 2],'symmetric','post'));
assertEqual(SparseMat(padarray(x,[2 2],'circular','both')),padarray(spmat,[2 2],'circular','both'));
assertEqual(SparseMat(padarray(x,[2 2],'replicate','both')),padarray(spmat,[2 2],'replicate','both'));
assertEqual(SparseMat(padarray(x,[2 2],'symmetric','both')),padarray(spmat,[2 2],'symmetric','both'));
end
function testAndOrXorNot(test)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
%mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=5;
mat2(3, 1, 2, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(3, 1, 3, 1)=4;
spmat2 = SparseMat(mat2);
%not
assertEqual(SparseMat(~mat), ~spmat);
assertEqual(SparseMat(~mat2), ~spmat2);
%or
assertEqual(SparseMat(mat | 0), spmat | 0);
assertEqual(SparseMat(mat | 2), spmat | 2);
assertEqual(SparseMat(mat | Inf), spmat | Inf);
assertEqual(SparseMat(mat | -Inf), spmat | -Inf);
assertEqual(SparseMat(mat | mat2), spmat | spmat2);
assertEqual(SparseMat(mat | mat2), spmat | mat2);
assertEqual(SparseMat(0 | mat), 0 | spmat);
assertEqual(SparseMat(2 | mat), 2 | spmat);
assertEqual(SparseMat(Inf | mat), Inf | spmat);
assertEqual(SparseMat(-Inf | mat), -Inf | spmat);
assertEqual(SparseMat(mat2 | mat), spmat2 | spmat);
assertEqual(SparseMat(mat2 | mat), mat2 | spmat);
%and
assertEqual(SparseMat(mat & 0), spmat & 0);
assertEqual(SparseMat(mat & 2), spmat & 2);
assertEqual(SparseMat(mat & Inf), spmat & Inf);
assertEqual(SparseMat(mat & -Inf), spmat & -Inf);
assertEqual(SparseMat(mat & mat2), spmat & spmat2);
assertEqual(SparseMat(mat & mat2), spmat & mat2);
assertEqual(SparseMat(0 & mat), 0 & spmat);
assertEqual(SparseMat(2 & mat), 2 & spmat);
assertEqual(SparseMat(Inf & mat), Inf & spmat);
assertEqual(SparseMat(-Inf & mat), -Inf & spmat);
assertEqual(SparseMat(mat2 & mat), spmat2 & spmat);
assertEqual(SparseMat(mat2 & mat), mat2 & spmat);
%xor
assertEqual(SparseMat(xor(mat,0)), xor(spmat,0));
assertEqual(SparseMat(xor(mat,2)), xor(spmat,2));
assertEqual(SparseMat(xor(mat,Inf)), xor(spmat,Inf));
assertEqual(SparseMat(xor(mat,-Inf)), xor(spmat,-Inf));
assertEqual(SparseMat(xor(mat,mat2)), xor(spmat,spmat2));
assertEqual(SparseMat(xor(mat,mat2)), xor(spmat,mat2));
assertEqual(SparseMat(xor(0,mat)), xor(0,spmat));
assertEqual(SparseMat(xor(2,mat)), xor(2,spmat));
assertEqual(SparseMat(xor(Inf,mat)), xor(Inf,spmat));
assertEqual(SparseMat(xor(-Inf,mat)), xor(-Inf,spmat));
assertEqual(SparseMat(xor(mat2,mat)), xor(spmat2,spmat));
assertEqual(SparseMat(xor(mat2,mat)), xor(mat2,spmat));
%nor
assertEqual(SparseMat(~(mat | 0)), nor(spmat,0));
assertEqual(SparseMat(~(mat | 2)), nor(spmat,2));
assertEqual(SparseMat(~(mat | Inf)), nor(spmat,Inf));
assertEqual(SparseMat(~(mat | -Inf)), nor(spmat,-Inf));
assertEqual(SparseMat(~(mat | mat2)), nor(spmat,spmat2));
assertEqual(SparseMat(~(mat | mat2)), nor(spmat,mat2));
assertEqual(SparseMat(~(0 | mat)), nor(0,spmat));
assertEqual(SparseMat(~(2 | mat)), nor(2,spmat));
assertEqual(SparseMat(~(Inf | mat)), nor(Inf,spmat));
assertEqual(SparseMat(~(-Inf | mat)), nor(-Inf,spmat));
assertEqual(SparseMat(~(mat2 | mat)), nor(spmat2,spmat));
assertEqual(SparseMat(~(mat2 | mat)), nor(mat2,spmat));
%nand
assertEqual(SparseMat(~(mat & 0)), nand(spmat,0));
assertEqual(SparseMat(~(mat & 2)), nand(spmat,2));
assertEqual(SparseMat(~(mat & Inf)), nand(spmat,Inf));
assertEqual(SparseMat(~(mat & -Inf)), nand(spmat,-Inf));
assertEqual(SparseMat(~(mat & mat2)), nand(spmat,spmat2));
assertEqual(SparseMat(~(mat & mat2)), nand(spmat,mat2));
assertEqual(SparseMat(~(0 & mat)), nand(0,spmat));
assertEqual(SparseMat(~(2 & mat)), nand(2,spmat));
assertEqual(SparseMat(~(Inf & mat)), nand(Inf,spmat));
assertEqual(SparseMat(~(-Inf & mat)), nand(-Inf,spmat));
assertEqual(SparseMat(~(mat2 & mat)), nand(spmat2,spmat));
assertEqual(SparseMat(~(mat2 & mat)), nand(mat2,spmat));
end
function testPlusMinus(test)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=5;
mat2(3, 1, 2, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(3, 1, 3, 1)=4;
spmat2 = SparseMat(mat2);
%unary
assertEqual(SparseMat(+mat), +spmat);
assertEqual(SparseMat(-mat), -spmat);
%addition
assertEqual(SparseMat(mat+0), spmat+0);
assertEqual(SparseMat(mat+2), spmat+2);
assertEqual(SparseMat(mat+NaN), spmat+NaN);
assertEqual(SparseMat(mat+Inf), spmat+Inf);
assertEqual(SparseMat(mat+-Inf), spmat+-Inf);
assertEqual(SparseMat(mat+mat2), spmat+spmat2);
assertEqual(SparseMat(mat+mat2), spmat+mat2);
assertEqual(SparseMat(0+mat), 0+spmat);
assertEqual(SparseMat(2+mat), 2+spmat);
assertEqual(SparseMat(NaN+mat), NaN+spmat);
assertEqual(SparseMat(Inf+mat), Inf+spmat);
assertEqual(SparseMat(-Inf+mat), -Inf+spmat);
assertEqual(SparseMat(mat2+mat), spmat2+spmat);
assertEqual(SparseMat(mat2+mat), mat2+spmat);
%subtraction
assertEqual(SparseMat(mat-0), spmat-0);
assertEqual(SparseMat(mat-2), spmat-2);
assertEqual(SparseMat(mat-NaN), spmat-NaN);
assertEqual(SparseMat(mat-Inf), spmat-Inf);
assertEqual(SparseMat(mat--Inf), spmat--Inf);
assertEqual(SparseMat(mat-mat2), spmat-spmat2);
assertEqual(SparseMat(mat-mat2), spmat-mat2);
assertEqual(SparseMat(0-mat), 0-spmat);
assertEqual(SparseMat(2-mat), 2-spmat);
assertEqual(SparseMat(NaN-mat), NaN-spmat);
assertEqual(SparseMat(Inf-mat), Inf-spmat);
assertEqual(SparseMat(-Inf-mat), -Inf-spmat);
assertEqual(SparseMat(mat2-mat), spmat2-spmat);
assertEqual(SparseMat(mat2-mat), mat2-spmat);
end
function testMultiplyDivideExponentiate(test)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=5;
mat2(3, 1, 2, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(3, 1, 3, 1)=4;
spmat2 = SparseMat(mat2);
mat3 = [
2 Inf 0;
0 2 -3;
0 0 NaN];
mat4 = [
4 0 -7;
-Inf 3 0
NaN 0 0];
spmat3 = SparseMat(mat3);
spmat4 = SparseMat(mat4);
%element-wise multiplication
assertEqual(SparseMat(mat.*0), spmat.*0);
assertEqual(SparseMat(mat.*2), spmat.*2);
assertEqual(SparseMat(mat.*NaN), spmat.*NaN);
assertEqual(SparseMat(mat.*Inf), spmat.*Inf);
assertEqual(SparseMat(mat.*-Inf), spmat.*-Inf);
assertEqual(SparseMat(mat.*mat2), spmat.*spmat2);
assertEqual(SparseMat(mat.*mat2), spmat.*mat2);
assertEqual(SparseMat(0.*mat), 0.*spmat);
assertEqual(SparseMat(2.*mat), 2.*spmat);
assertEqual(SparseMat(NaN.*mat), NaN.*spmat);
assertEqual(SparseMat(Inf.*mat), Inf.*spmat);
assertEqual(SparseMat(-Inf.*mat), -Inf.*spmat);
assertEqual(SparseMat(mat2.*mat), spmat2.*spmat);
assertEqual(SparseMat(mat2.*mat), mat2.*spmat);
%matrix multiplication
assertEqual(SparseMat(mat*0), spmat*0);
assertEqual(SparseMat(mat*2), spmat*2);
assertEqual(SparseMat(mat*NaN), spmat*NaN);
assertEqual(SparseMat(mat*Inf), spmat*Inf);
assertEqual(SparseMat(mat*-Inf), spmat*-Inf);
assertEqual(SparseMat(mat3*mat4), spmat3*spmat4);
assertEqual(SparseMat(mat3*mat4), spmat3*mat4);
assertEqual(SparseMat(0*mat), 0*spmat);
assertEqual(SparseMat(2*mat), 2*spmat);
assertEqual(SparseMat(NaN*mat), NaN*spmat);
assertEqual(SparseMat(Inf*mat), Inf*spmat);
assertEqual(SparseMat(-Inf*mat), -Inf*spmat);
assertEqual(SparseMat(mat4*mat3), spmat4*spmat3);
assertEqual(SparseMat(mat4*mat3), mat4*spmat3);
%element-wise right division
assertEqual(SparseMat(mat./0), spmat./0);
assertEqual(SparseMat(mat./2), spmat./2);
assertEqual(SparseMat(mat./NaN), spmat./NaN);
assertEqual(SparseMat(mat./Inf), spmat./Inf);
assertEqual(SparseMat(mat./-Inf), spmat./-Inf);
assertEqual(SparseMat(mat./mat2), spmat./spmat2);
assertEqual(SparseMat(mat./mat2), spmat./mat2);
assertEqual(SparseMat(0./mat), 0./spmat);
assertEqual(SparseMat(2./mat), 2./spmat);
assertEqual(SparseMat(NaN./mat), NaN./spmat);
assertEqual(SparseMat(Inf./mat), Inf./spmat);
assertEqual(SparseMat(-Inf./mat), -Inf./spmat);
assertEqual(SparseMat(mat2./mat), spmat2./spmat);
assertEqual(SparseMat(mat2./mat), mat2./spmat);
%matrix right division
assertEqual(SparseMat(mat/0), spmat/0);
assertEqual(SparseMat(mat/2), spmat/2);
assertEqual(SparseMat(mat/NaN), spmat/NaN);
assertEqual(SparseMat(mat/Inf), spmat/Inf);
assertEqual(SparseMat(mat/-Inf), spmat/-Inf);
% assertEqual(SparseMat(mat/mat2), spmat/spmat2);
% assertEqual(SparseMat(mat/mat2), spmat/mat2);
assertEqual(SparseMat(0/mat), 0/spmat);
assertEqual(SparseMat(2/mat), 2/spmat);
assertEqual(SparseMat(NaN/mat), NaN/spmat);
assertEqual(SparseMat(Inf/mat), Inf/spmat);
assertEqual(SparseMat(-Inf/mat), -Inf/spmat);
% assertEqual(SparseMat(mat2/mat), spmat2/spmat);
% assertEqual(SparseMat(mat2/mat), mat2/spmat);
%element-wise left division
assertEqual(SparseMat(mat.\0), spmat.\0);
assertEqual(SparseMat(mat.\2), spmat.\2);
assertEqual(SparseMat(mat.\NaN), spmat.\NaN);
assertEqual(SparseMat(mat.\Inf), spmat.\Inf);
assertEqual(SparseMat(mat.\-Inf), spmat.\-Inf);
assertEqual(SparseMat(mat.\mat2), spmat.\spmat2);
assertEqual(SparseMat(mat.\mat2), spmat.\mat2);
assertEqual(SparseMat(0.\mat), 0.\spmat);
assertEqual(SparseMat(2.\mat), 2.\spmat);
assertEqual(SparseMat(NaN.\mat), NaN.\spmat);
assertEqual(SparseMat(Inf.\mat), Inf.\spmat);
assertEqual(SparseMat(-Inf.\mat), -Inf.\spmat);
assertEqual(SparseMat(mat2.\mat), spmat2.\spmat);
assertEqual(SparseMat(mat2.\mat), mat2.\spmat);
%matrix left division
assertEqual(SparseMat(mat\0), spmat\0);
assertEqual(SparseMat(mat\2), spmat\2);
assertEqual(SparseMat(mat\NaN), spmat\NaN);
assertEqual(SparseMat(mat\Inf), spmat\Inf);
assertEqual(SparseMat(mat\-Inf), spmat\-Inf);
% assertEqual(SparseMat(mat\mat2), spmat\spmat2);
% assertEqual(SparseMat(mat\mat2), spmat\mat2);
assertEqual(SparseMat(0\mat), 0\spmat);
assertEqual(SparseMat(2\mat), 2\spmat);
assertEqual(SparseMat(NaN\mat), NaN\spmat);
assertEqual(SparseMat(Inf\mat), Inf\spmat);
assertEqual(SparseMat(-Inf\mat), -Inf\spmat);
% assertEqual(SparseMat(mat2\mat), spmat2\spmat);
% assertEqual(SparseMat(mat2\mat), mat2\spmat);
%element-wise exponentiation
assertEqual(SparseMat(mat.^0), spmat.^0);
assertEqual(SparseMat(mat.^2), spmat.^2);
assertEqual(SparseMat(mat.^NaN), spmat.^NaN);
assertEqual(SparseMat(mat.^Inf), spmat.^Inf);
assertEqual(SparseMat(mat.^-Inf), spmat.^-Inf);
assertEqual(SparseMat(mat.^mat2), spmat.^spmat2);
assertEqual(SparseMat(mat.^mat2), spmat.^mat2);
assertEqual(SparseMat(0.^mat), 0.^spmat);
assertEqual(SparseMat(2.^mat), 2.^spmat);
assertEqual(SparseMat(NaN.^mat), NaN.^spmat);
assertEqual(SparseMat(Inf.^mat), Inf.^spmat);
assertEqual(SparseMat(-Inf.^mat), -Inf.^spmat);
assertEqual(SparseMat(mat2.^mat), spmat2.^spmat);
assertEqual(SparseMat(mat2.^mat), mat2.^spmat);
%matrix exponentiation
% assertEqual(SparseMat(mat^0), spmat^0);
% assertEqual(SparseMat(mat^2), spmat^2);
% assertEqual(SparseMat(mat^NaN), spmat^NaN);
% assertEqual(SparseMat(mat^Inf), spmat^Inf);
% assertEqual(SparseMat(mat^-Inf), spmat^-Inf);
% assertEqual(SparseMat(mat^mat2), spmat^spmat2);
% assertEqual(SparseMat(mat^mat2), spmat^mat2);
% assertEqual(SparseMat(0^mat), 0^spmat);
% assertEqual(SparseMat(2^mat), 2^spmat);
% assertEqual(SparseMat(NaN^mat), NaN^spmat);
% assertEqual(SparseMat(Inf^mat), Inf^spmat);
% assertEqual(SparseMat(-Inf^mat), -Inf^spmat);
% assertEqual(SparseMat(mat2^mat), spmat2^spmat);
% assertEqual(SparseMat(mat2^mat), mat2^spmat);
end
function testEquality(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=5;
mat2(3, 1, 2, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(3, 1, 3, 1)=4;
spmat2 = SparseMat(mat2);
assertEqual(SparseMat(mat==0), spmat==0);
assertEqual(SparseMat(mat==2), spmat==2);
assertEqual(SparseMat(mat==NaN), spmat==NaN);
assertEqual(SparseMat(mat==Inf), spmat==Inf);
assertEqual(SparseMat(mat==-Inf), spmat==-Inf);
assertEqual(SparseMat(mat==mat2), spmat==spmat2);
assertEqual(SparseMat(mat==mat2), spmat==mat2);
assertEqual(SparseMat(0==mat), 0==spmat);
assertEqual(SparseMat(2==mat), 2==spmat);
assertEqual(SparseMat(NaN==mat), NaN==spmat);
assertEqual(SparseMat(Inf==mat), Inf==spmat);
assertEqual(SparseMat(-Inf==mat), -Inf==spmat);
assertEqual(SparseMat(mat2==mat), spmat2==spmat);
assertEqual(SparseMat(mat2==mat), mat2==spmat);
end
function testInequality(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=5;
mat2(3, 1, 2, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(3, 1, 3, 1)=4;
spmat2 = SparseMat(mat2);
assertEqual(SparseMat(mat~=0), spmat~=0);
assertEqual(SparseMat(mat~=2), spmat~=2);
assertEqual(SparseMat(mat~=NaN), spmat~=NaN);
assertEqual(SparseMat(mat~=Inf), spmat~=Inf);
assertEqual(SparseMat(mat~=-Inf), spmat~=-Inf);
assertEqual(SparseMat(mat~=mat2), spmat~=spmat2);
assertEqual(SparseMat(mat~=mat2), spmat~=mat2);
assertEqual(SparseMat(0~=mat), 0~=spmat);
assertEqual(SparseMat(2~=mat), 2~=spmat);
assertEqual(SparseMat(NaN~=mat), NaN~=spmat);
assertEqual(SparseMat(Inf~=mat), Inf~=spmat);
assertEqual(SparseMat(-Inf~=mat), -Inf~=spmat);
assertEqual(SparseMat(mat2~=mat), spmat2~=spmat);
assertEqual(SparseMat(mat2~=mat), mat2~=spmat);
end
function testGreaterThan(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=5;
mat2(3, 1, 2, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(3, 1, 3, 1)=4;
spmat2 = SparseMat(mat2);
assertEqual(SparseMat(mat>0), spmat>0);
assertEqual(SparseMat(mat>2), spmat>2);
assertEqual(SparseMat(mat>NaN), spmat>NaN);
assertEqual(SparseMat(mat>Inf), spmat>Inf);
assertEqual(SparseMat(mat>-Inf), spmat>-Inf);
assertEqual(SparseMat(mat>mat2), spmat>spmat2);
assertEqual(SparseMat(mat>mat2), spmat>mat2);
assertEqual(SparseMat(0>mat), 0>spmat);
assertEqual(SparseMat(2>mat), 2>spmat);
assertEqual(SparseMat(NaN>mat), NaN>spmat);
assertEqual(SparseMat(Inf>mat), Inf>spmat);
assertEqual(SparseMat(-Inf>mat), -Inf>spmat);
assertEqual(SparseMat(mat2>mat), spmat2>spmat);
assertEqual(SparseMat(mat2>mat), mat2>spmat);
end
function testGreaterThanOrEqualTo(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=5;
mat2(3, 1, 2, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(3, 1, 3, 1)=4;
spmat2 = SparseMat(mat2);
assertEqual(SparseMat(mat>=0), spmat>=0);
assertEqual(SparseMat(mat>=2), spmat>=2);
assertEqual(SparseMat(mat>=NaN), spmat>=NaN);
assertEqual(SparseMat(mat>=Inf), spmat>=Inf);
assertEqual(SparseMat(mat>=-Inf), spmat>=-Inf);
assertEqual(SparseMat(mat>=mat2), spmat>=spmat2);
assertEqual(SparseMat(mat>=mat2), spmat>=mat2);
assertEqual(SparseMat(0>=mat), 0>=spmat);
assertEqual(SparseMat(2>=mat), 2>=spmat);
assertEqual(SparseMat(NaN>=mat), NaN>=spmat);
assertEqual(SparseMat(Inf>=mat), Inf>=spmat);
assertEqual(SparseMat(-Inf>=mat), -Inf>=spmat);
assertEqual(SparseMat(mat2>=mat), spmat2>=spmat);
assertEqual(SparseMat(mat2>=mat), mat2>=spmat);
end
function testLessThan(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=5;
mat2(3, 1, 2, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(3, 1, 3, 1)=4;
spmat2 = SparseMat(mat2);
assertEqual(SparseMat(mat<0), spmat<0);
assertEqual(SparseMat(mat<2), spmat<2);
assertEqual(SparseMat(mat<NaN), spmat<NaN);
assertEqual(SparseMat(mat<Inf), spmat<Inf);
assertEqual(SparseMat(mat<-Inf), spmat<-Inf);
assertEqual(SparseMat(mat<mat2), spmat<spmat2);
assertEqual(SparseMat(mat<mat2), spmat<mat2);
assertEqual(SparseMat(0<mat), 0<spmat);
assertEqual(SparseMat(2<mat), 2<spmat);
assertEqual(SparseMat(NaN<mat), NaN<spmat);
assertEqual(SparseMat(Inf<mat), Inf<spmat);
assertEqual(SparseMat(-Inf<mat), -Inf<spmat);
assertEqual(SparseMat(mat2<mat), spmat2<spmat);
assertEqual(SparseMat(mat2<mat), mat2<spmat);
end
function testLessThanOrEqualTo(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=5;
mat2(3, 1, 2, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(3, 1, 3, 1)=4;
spmat2 = SparseMat(mat2);
assertEqual(SparseMat(mat<=0), spmat<=0);
assertEqual(SparseMat(mat<=2), spmat<=2);
assertEqual(SparseMat(mat<=NaN), spmat<=NaN);
assertEqual(SparseMat(mat<=Inf), spmat<=Inf);
assertEqual(SparseMat(mat<=-Inf), spmat<=-Inf);
assertEqual(SparseMat(mat<=mat2), spmat<=spmat2);
assertEqual(SparseMat(mat<=mat2), spmat<=mat2);
assertEqual(SparseMat(0<=mat), 0<=spmat);
assertEqual(SparseMat(2<=mat), 2<=spmat);
assertEqual(SparseMat(NaN<=mat), NaN<=spmat);
assertEqual(SparseMat(Inf<=mat), Inf<=spmat);
assertEqual(SparseMat(-Inf<=mat), -Inf<=spmat);
assertEqual(SparseMat(mat2<=mat), spmat2<=spmat);
assertEqual(SparseMat(mat2<=mat), mat2<=spmat);
end
function testScalarFunctions(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
%abs
assertEqual(SparseMat(abs(mat)), abs(spmat));
%sign
assertEqual(SparseMat(sign(mat)), sign(spmat));
%sqrt
assertEqual(SparseMat(sqrt(mat)), sqrt(spmat));
%realsqrt
assertEqual(SparseMat(realsqrt(abs(mat))), realsqrt(abs(spmat)));
%exp
assertEqual(SparseMat(exp(mat)), exp(spmat));
%expm1
assertEqual(SparseMat(expm1(mat)), expm1(spmat));
%log
assertEqual(SparseMat(log(mat)), log(spmat));
%log1p
assertEqual(SparseMat(log1p(mat)), log1p(spmat));
%log2
assertEqual(SparseMat(log2(mat)), log2(spmat));
%log10
assertEqual(SparseMat(log10(mat)), log10(spmat));
%reallog
assertEqual(SparseMat(reallog(abs(mat))), reallog(abs(spmat)));
end
function testComplexNumbers(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3+sqrt(-1);
mat(3, 1, 1, 1)=4-sqrt(-1);
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
%abs
assertEqual(SparseMat(abs(mat)), abs(spmat));
%sign
assertEqual(SparseMat(sign(mat)), sign(spmat));
%real
assertEqual(SparseMat(real(mat)), real(spmat));
%imag
assertEqual(SparseMat(imag(mat)), imag(spmat));
%angle
assertEqual(SparseMat(angle(mat)), angle(spmat));
%conj
assertEqual(SparseMat(conj(mat)), conj(spmat));
%isreal
assertEqual(SparseMat(isreal(mat)), isreal(spmat));
end
function testSetOperators(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2=ones(4,1);
spmat2=SparseMat(mat2);
%unique
assertEqual(SparseMat(unique(mat)), unique(spmat));
assertEqual(SparseMat(unique(mat2)), unique(spmat2));
assertEqual(SparseMat(unique(zeros(0,1))), unique(SparseMat));
assertEqual(SparseMat(unique(zeros(1,0))), unique(SparseMat));
end
function testAnyAll(~)
import edu.stanford.covert.util.SparseMat;
fl_x=zeros(3,2);
fl_x(1,3)=2;
fl_x(2,:)=-1;
st_x=SparseMat(fl_x);
%all
assertEqual(SparseMat(all(fl_x)), all(st_x));
assertEqual(SparseMat(all(fl_x,1)), all(st_x,1));
assertEqual(SparseMat(all(fl_x,2)), all(st_x,2));
assertEqual(SparseMat(all(fl_x,3)), all(st_x,3));
%any
assertEqual(SparseMat(any(fl_x)), any(st_x));
assertEqual(SparseMat(any(fl_x,1)), any(st_x,1));
assertEqual(SparseMat(any(fl_x,2)), any(st_x,2));
assertEqual(SparseMat(any(fl_x,3)), any(st_x,3));
end
function testReduction(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = zeros(4,1,3,2);
mat2(4, 1, 3, 1)=-1;
mat2(2, 1, 3, 2)=2;
mat2(1, 1, 1, 2)=3;
mat2(1, 1, 2, 1)=4;
mat2(3, 1, 2, 2)=Inf;
mat2(4, 1, 2, 1)=NaN;
mat2(3, 1, 2, 1)=-Inf;
spmat2=SparseMat(mat2);
%min
assertEqual(SparseMat(min(mat,0)), min(spmat,0));
assertEqual(SparseMat(min(mat,2)), min(spmat,2));
assertEqual(SparseMat(min(mat,-2)), min(spmat,-2));
assertEqual(SparseMat(min(mat,NaN)), min(spmat,NaN));
assertEqual(SparseMat(min(mat,Inf)), min(spmat,Inf));
assertEqual(SparseMat(min(mat,-Inf)), min(spmat,-Inf));
assertEqual(SparseMat(min(0,mat)), min(0,spmat));
assertEqual(SparseMat(min(2,mat)), min(2,spmat));
assertEqual(SparseMat(min(-2,mat)), min(-2,spmat));
assertEqual(SparseMat(min(NaN,mat)), min(NaN,spmat));
assertEqual(SparseMat(min(Inf,mat)), min(Inf,spmat));
assertEqual(SparseMat(min(-Inf,mat)), min(-Inf, spmat));
assertEqual(SparseMat(min(mat,mat2)), min(spmat,spmat2));
assertEqual(SparseMat(min(mat,mat2)), min(spmat,mat2));
assertEqual(SparseMat(min(mat2,mat)), min(spmat2,spmat));
assertEqual(SparseMat(min(mat,mat2)), min(mat2,spmat));
assertEqual(SparseMat(min(mat)), min(spmat));
assertEqual(SparseMat(min(mat,[],1)), min(spmat,[],1));
assertEqual(SparseMat(min(mat,[],2)), min(spmat,[],2));
assertEqual(SparseMat(min(mat,[],3)), min(spmat,[],3));
assertEqual(SparseMat(min(mat,[],4)), min(spmat,[],4));
assertEqual(SparseMat(min(mat,[],5)), min(spmat,[],5));
%max
assertEqual(SparseMat(max(mat,0)), max(spmat,0));
assertEqual(SparseMat(max(mat,2)), max(spmat,2));
assertEqual(SparseMat(max(mat,-2)), max(spmat,-2));
assertEqual(SparseMat(max(mat,NaN)), max(spmat,NaN));
assertEqual(SparseMat(max(mat,Inf)), max(spmat,Inf));
assertEqual(SparseMat(max(mat,-Inf)), max(spmat,-Inf));
assertEqual(SparseMat(max(0,mat)), max(0,spmat));
assertEqual(SparseMat(max(2,mat)), max(2,spmat));
assertEqual(SparseMat(max(-2,mat)), max(-2,spmat));
assertEqual(SparseMat(max(NaN,mat)), max(NaN,spmat));
assertEqual(SparseMat(max(Inf,mat)), max(Inf,spmat));
assertEqual(SparseMat(max(-Inf,mat)), max(-Inf, spmat));
assertEqual(SparseMat(max(mat,mat2)), max(spmat,spmat2));
assertEqual(SparseMat(max(mat,mat2)), max(spmat,mat2));
assertEqual(SparseMat(max(mat2,mat)), max(spmat2,spmat));
assertEqual(SparseMat(max(mat,mat2)), max(mat2,spmat));
assertEqual(SparseMat(max(mat)), max(spmat));
assertEqual(SparseMat(max(mat,[],1)), max(spmat,[],1));
assertEqual(SparseMat(max(mat,[],2)), max(spmat,[],2));
assertEqual(SparseMat(max(mat,[],3)), max(spmat,[],3));
assertEqual(SparseMat(max(mat,[],4)), max(spmat,[],4));
assertEqual(SparseMat(max(mat,[],5)), max(spmat,[],5));
%range
assertEqual(SparseMat(range(mat)), range(spmat));
assertEqual(SparseMat(range(mat,1)), range(spmat,1));
assertEqual(SparseMat(range(mat,2)), range(spmat,2));
assertEqual(SparseMat(range(mat,3)), range(spmat,3));
assertEqual(SparseMat(range(mat,4)), range(spmat,4));
assertEqual(SparseMat(range(mat,5)), range(spmat,5));
%sum
assertEqual(SparseMat(sum(mat)), sum(spmat));
assertEqual(SparseMat(sum(mat,1)), sum(spmat,1));
assertEqual(SparseMat(sum(mat,2)), sum(spmat,2));
assertEqual(SparseMat(sum(mat,3)), sum(spmat,3));
assertEqual(SparseMat(sum(mat,4)), sum(spmat,4));
assertEqual(SparseMat(sum(mat,5)), sum(spmat,5));
%collapse
assertEqual(sum(sum(sum(sum(mat)))), collapse(spmat));
assertEqual(squeeze(sum(mat,2)), collapse(spmat,2));
assertEqual(squeeze(sum(sum(mat,1),3)), collapse(spmat,[1 3]));
assertEqual(squeeze(sum(sum(sum(mat,3),4),2)), collapse(spmat,[2 3 4]));
assertEqual(squeeze(sum(sum(sum(mat,2),3),4)), collapse(spmat,[2 3 4]));
assertEqual(squeeze(sum(sum(sum(mat,1),3),4)), collapse(spmat,[1 3 4]));
%mean
assertEqual(SparseMat(mean(mat)), mean(spmat));
assertEqual(SparseMat(mean(mat,1)), mean(spmat,1));
assertEqual(SparseMat(mean(mat,2)), mean(spmat,2));
assertEqual(SparseMat(mean(mat,3)), mean(spmat,3));
assertEqual(SparseMat(mean(mat,4)), mean(spmat,4));
assertEqual(SparseMat(mean(mat,5)), mean(spmat,5));
%var
assertElementsAlmostEqual(var(mat), double(var(spmat)));
assertElementsAlmostEqual(var(mat,1), double(var(spmat,1)));
% assertElementsAlmostEqual(var(mat,0,1), double(var(spmat,0,1)));
% assertElementsAlmostEqual(var(mat,0,2), double(var(spmat,0,2)));
% assertElementsAlmostEqual(var(mat,0,3), double(var(spmat,0,3)));
% assertElementsAlmostEqual(var(mat,0,4), double(var(spmat,0,4)));
% assertElementsAlmostEqual(var(mat,0,5), double(var(spmat,0,5)));
assertElementsAlmostEqual(var(mat,1,1), double(var(spmat,1,1)));
assertElementsAlmostEqual(var(mat,1,2), double(var(spmat,1,2)));
assertElementsAlmostEqual(var(mat,1,3), double(var(spmat,1,3)));
assertElementsAlmostEqual(var(mat,1,4), double(var(spmat,1,4)));
assertElementsAlmostEqual(var(mat,1,5), double(var(spmat,1,5)));
%std
assertEqual(SparseMat(std(mat)), std(spmat));
assertEqual(SparseMat(std(mat,1)), std(spmat,1));
% assertEqual(SparseMat(std(mat,0,1)), std(spmat,0,1));
% assertEqual(SparseMat(std(mat,0,2)), std(spmat,0,2));
% assertEqual(SparseMat(std(mat,0,3)), std(spmat,0,3));
% assertEqual(SparseMat(std(mat,0,4)), std(spmat,0,4));
% assertEqual(SparseMat(std(mat,0,5)), std(spmat,0,5));
assertEqual(SparseMat(std(mat,1,1)), std(spmat,1,1));
assertEqual(SparseMat(std(mat,1,2)), std(spmat,1,2));
assertEqual(SparseMat(std(mat,1,3)), std(spmat,1,3));
assertEqual(SparseMat(std(mat,1,4)), std(spmat,1,4));
assertEqual(SparseMat(std(mat,1,5)), std(spmat,1,5));
%norm
assertEqual(SparseMat(norm(reshape(mat,[],1),1)), norm(spmat,1));
assertEqual(SparseMat(norm(reshape(mat,[],1),2)), norm(spmat,2));
assertEqual(SparseMat(norm(reshape(mat,[],1),Inf)), norm(spmat,Inf));
assertEqual(SparseMat(norm(reshape(mat,[],1),-Inf)), norm(spmat,-Inf));
assertEqual(SparseMat(norm(reshape(mat,[],1),'fro')), norm(spmat,'fro'));
end
function testSum(~)
import edu.stanford.covert.util.SparseMat;
x = SparseMat([],[],[3 1]);
assertEqual(x, sum(x,3));
assertEqual(x, sum(x,2));
assertEqual(SparseMat([],[],[1 1]), sum(x,1));
x = SparseMat([],[],[1 3]);
assertEqual(x, sum(x,3));
assertEqual(x, sum(x,1));
assertEqual(SparseMat([],[],[1 1]), sum(x,2));
end
function testIss(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
assertEqual(SparseMat(isnan(mat)), isnan(spmat));
assertEqual(SparseMat(isinf(mat)), isinf(spmat));
assertEqual(SparseMat(isfinite(mat)), isfinite(spmat));
end
%type casting
function testTypeCasting(~)
import edu.stanford.covert.util.SparseMat;
mat = zeros(4,1,3,2);
mat(4, 1, 3, 1)=-1;
mat(3, 1, 2, 2)=2;
mat(1, 1, 1, 2)=3;
mat(3, 1, 1, 1)=4;
mat(3, 1, 2, 1)=Inf;
mat(1, 1, 2, 1)=NaN;
mat(2, 1, 2, 1)=-Inf;
spmat = SparseMat(mat);
mat2 = sparse(permute(sum(mat,4),[1 3 2]));
spmat2 = SparseMat(mat2);
%full
assertEqual(mat, full(spmat));
%sparse
assertEqual(mat2, sparse(spmat2));
%cast
assertEqual(cast(mat,'double'), cast(spmat,'double'));
assertEqual(cast(mat,'int32'), cast(spmat,'int32'));
warning('off','MATLAB:nonIntegerTruncatedInConversionToChar')
assertEqual(char(mat), char(spmat));
warning('on','MATLAB:nonIntegerTruncatedInConversionToChar')
exception=[];
try
assertEqual(logical(mat), logical(spmat));
catch exception
end
if isempty(exception)
throw(MException('SparseMat:typeConversion','NaN''s cannot be converted to logicals'));
end
assertEqual(int8(mat), int8(spmat));
assertEqual(int16(mat), int16(spmat));
assertEqual(int32(mat), int32(spmat));
assertEqual(int64(mat), int64(spmat));
assertEqual(uint8(mat), uint8(spmat));
assertEqual(uint16(mat), uint16(spmat));
assertEqual(uint32(mat), uint32(spmat));
assertEqual(uint64(mat), uint64(spmat));
assertEqual(single(mat), single(spmat));
assertEqual(double(mat), double(spmat));
end
end
end
