ea_addobj.m

function ea_addobj(resultfig, obj, options)

addht = getappdata(resultfig,'addht');
if isempty(addht)
    addht=uitoolbar(resultfig);
    labelbutton=uitoggletool(addht,'CData',ea_get_icn('labels'),'Tag','Labels','TooltipString','Labels');
    labelcolorbutton=uipushtool(addht,'CData',ea_get_icn('colors'),'Tag','Label Color','TooltipString','Label Color');
end

setappdata(resultfig,'addht',addht)

if iscell(obj) % dragndrop for tract and roi, 'obj' is a cell of the files
    if all(cellfun(@numel, regexp(obj, '(\.mat|\.trk)$', 'match', 'once'))) %tract
        for i=1:length(obj)
            addfibertract(obj{i}, resultfig, addht, [], 0, options);
        end
    
    elseif all(cellfun(@numel, regexp(obj, '(\.nii|\.nii\.gz)$', 'match', 'once'))) %roi
        pobj.plotFigureH = resultfig;
        pobj.htH = addht;
        if ~isfield(options, 'prefs')
            options.prefs = ea_prefs;
        end
        if options.prefs.d3.roi.autofillcolor && length(obj)>1 % i.e. multiple roi's selected
            if length(obj)<=8
                str2eval = ['cmap = ', options.prefs.d3.roi.defaultcolormap, '(8);'];
            else
                str2eval = ['cmap = ', options.prefs.d3.roi.defaultcolormap, '(', num2str(length(obj)), ');'];
            end
            eval(str2eval);
            for i=1:length(obj)
                pobj.color = cmap(i,:);
                roi = ea_roi(obj{i}, pobj);
                centroid = mean(roi.fv.vertices(:,1:3));
                addlabel(centroid, roi.Tag, addht);
            end
        else
            for i=1:length(obj)
                pobj.color = ea_uisetcolor;
                roi = ea_roi(obj{i}, pobj);
                centroid = mean(roi.fv.vertices(:,1:3));
                addlabel(centroid, roi.Tag, addht);
            end
        end
    elseif all(cellfun(@numel, regexp(obj, '(\.fibfilt)$', 'match', 'once')))
        for i=1:length(obj)
            ea_discfiberexplorer(obj{i}, resultfig);
        end
    elseif all(cellfun(@numel, regexp(obj, '(\.netmap)$', 'match', 'once')))
        for i=1:length(obj)
            ea_networkmappingexplorer(obj{i}, resultfig);
        end
    elseif all(cellfun(@numel, regexp(obj, '(\.sweetspot)$', 'match', 'once')))
        for i=1:length(obj)
            ea_sweetspotexplorer(obj{i}, resultfig);
        end
    else
        warndlg('Unsupported file(s) found!');
    end
else  % uigetfile, 'obj' is the type of the files to be selected
    if ~isfield(options, 'root')
        startPath = ea_gethome;
    else
        startPath = [options.root,options.patientname,filesep];
    end

    switch obj
        case 'tract'
            % open dialog
            [tractName,tractPath]=uigetfile({'*.mat;*.trk', 'Fiber Files (*.mat,*.trk)'},'Choose Fibertract to add to scene...',startPath,'MultiSelect','on');
            if isnumeric(tractName) % User pressed cancel, tractName is 0
                return
            else
                if ischar(tractName)
                    tractName = {tractName};
                end

                for fi=1:length(tractName)
                    addfibertract([tractPath,tractName{fi}],resultfig,addht,[],0,options);
                end
            end
        case 'roi' % atlas
            % open dialog
            [roiName, roiPath] = uigetfile({'*.nii';'*.nii.gz'},'Choose .nii image to add to scene...',startPath,'MultiSelect','on');

            if isnumeric(roiName) % User pressed cancel, roiName is 0
                return
            else
                if ischar(roiName)
                    roiName = {roiName};
                end

                pobj.plotFigureH = resultfig;
                pobj.htH = addht;
                prefs = ea_prefs;
                if prefs.d3.roi.autofillcolor && length(roiName)>1 % i.e. multiple roi's selected
                    if length(obj)<=32
                        str2eval = ['cmap = ', prefs.d3.roi.defaultcolormap, '(32);'];
                    else
                        str2eval = ['cmap = ', prefs.d3.roi.defaultcolormap, '(', num2str(length(roiName)), ');'];
                    end
                    eval(str2eval);
                    for fi=1:length(roiName)
                        pobj.color = cmap(fi,:);
                        roi = ea_roi([roiPath, roiName{fi}], pobj);
                        centroid = mean(roi.fv.vertices(:,1:3));
                        addlabel(centroid, roi.Tag, addht);
                    end
                else
                    for fi=1:length(roiName)
                        pobj.color = ea_uisetcolor;
                        roi = ea_roi([roiPath, roiName{fi}], pobj);
                        centroid = mean(roi.fv.vertices(:,1:3));
                        addlabel(centroid, roi.Tag, addht);
                    end
                end
            end
        case 'tractmap'
            [tfina,tpana]=uigetfile('*.mat','Choose Fibertract to add to scene...',startPath,'MultiSelect','off');
            [rfina,rpana]=uigetfile({'*.nii';'*.nii.gz'},'Choose .nii image to colorcode tracts...',startPath,'MultiSelect','off');
            addtractweighted([tpana,tfina],[rpana,rfina],resultfig,addht,options)
        case 'fiberactivation'
            [fileName,filePath]=uigetfile('*.mat','Choose fiber activation to add to scene...',startPath,'MultiSelect','off');
            ea_fiberactivation_viz([filePath,fileName],resultfig)
    end
end

axis fill


function addtractweighted(tract,weight,resultfig,addht,options)

disp('Loading fibertracts...');
[fibers, idx] = ea_loadfibertracts(tract, 'ask');
disp('Done.');

disp('Loading weight...');
nii=ea_load_nii(weight);
disp('Done.');

nii.img(isnan(nii.img))=0;
nzeros=abs(nii.img)>(std(nii.img(:)));
nzeros=find(nzeros(:));
weights=nii.img(nzeros);
cmweights=weights;
cmweights=cmweights-min(cmweights);
cmweights=cmweights/max(cmweights);
cmweights=(cmweights*(length(gray)-1))+1; % normalize to colormap
c1 = ea_uisetcolor([1,1,1],'Valley Color');
c2 = ea_uisetcolor([1,0,0],'Peak Color');
cg = ea_colorgradient(length(gray), c1, c2); % white to red standard
cmweights=squeeze(ind2rgb(round(cmweights),cg));

[nzX,nzY,nzZ]=ind2sub(size(nii.img),nzeros);
nzXYZ=[nzX,nzY,nzZ]; clear nzX nzY nzZ

nzXYZ=nii.mat*[nzXYZ,ones(size(nzXYZ,1),1)]';
nzXYZ=nzXYZ(1:3,:)';

disp('Selecting fibertracts...')
[ix,d]=knnsearch(nzXYZ,fibers(:,1:3));
disp('Done.');
ea_dispercent(0,'Assigning colors to fibers');
ftractcols=zeros(length(idx),3);
fibno=length(idx);
idcnt=1;
for ftract=1:fibno
    thisfibentries=idcnt:idcnt+idx(ftract)-1;
    idcnt=idcnt+idx(ftract);
    ftdists=d(thisfibentries);

    smallftdists=ftdists<2;

    if any(smallftdists)
        minidentifier=thisfibentries(smallftdists);
        thisweights=weights(ix(minidentifier));
        [~,maxix]=max(thisweights);
        ftractcols(ftract,:)=cmweights(ix(minidentifier(maxix)),:);
    end
    ea_dispercent(ftract/fibno);
end
ea_dispercent(1,'end');

ea_dispercent(0,'Plotting fibers')
cnt=1;
coloredfibs=find(sum(ftractcols,2))';
numcoloredfibs=length(coloredfibs);
for fib=coloredfibs
    ea_dispercent(cnt/numcoloredfibs);
    thisfib=fibers(fibers(:,4)==fib,1:3);
    thisfib=[thisfib,...
        repmat(ftractcols(fib,:),size(thisfib,1),1)]'; % assign weight to fib
    [~,fv(cnt)]=ea_plot_fiber(thisfib,6,0,options);
    cnt=cnt+1;
end
ea_dispercent(1,'end');
if numcoloredfibs
    fv=ea_concatfv(fv);
    addobjr=patch(fv,'Facecolor', 'interp', 'EdgeColor', 'none','FaceAlpha',0.3);
    
    % add toggle button:
    [~, tfina] = fileparts(tract);
    [~, rfina] = fileparts(weight);
    uitoggletool(addht,'CData',ea_get_icn('fibers'),'TooltipString',[tfina,' weighted by ',rfina],'OnCallback',{@(src, evt) ea_atlasvisible(addobjr)},'OffCallback',{@(src, evt) ea_atlasinvisible(addobjr)},'State','on','UserData','weightedtract');
    drawnow
else
    ea_warning('No fibers selected by ROI');
end
disp('Done.');


function addfibertract(obj,resultfig,addht,connect,ft,options)
if ischar(obj) % addobj
    if endsWith(obj, '.mat')
        load(obj);
        if exist('fibsin', 'var')
            fibers = fibsin;
            clear fibsin
        end

        if exist('fibers', 'var')
            % 3xN column vectors detected, transpose
            if size(fibers,1) < size(fibers,2)
                fibers = fibers';
            end

            % Convert fibers to mm space when needed
            if exist('voxmm', 'var') && strcmp(voxmm, 'vox') && exist('mat', 'var')
                fibers(:,1:3) = ea_vox2mm(fibers(:,1:3), mat);
            end

            % Check fiber format
            if size(fibers,2) == 5 && exist('connectome_name', 'var') % fiber activation result loaded
                ea_fiberactivation_viz(obj, resultfig);
                return;
            elseif size(fibers,2) == 4 % with index
                thisset = fibers(:,1:3);
                [~,~,idx] = unique(fibers(:,4));
                fibidx = accumarray(idx,1);
            elseif size(fibers,2) == 3 % without index
                thisset = fibers;
                fibidx = ones(size(fibers,1),1);
            else
                error('Wrong input fiber tracts format!');
            end
            clear fibers idx
        else
            error('No fiber tracts found!');
        end
    elseif endsWith(obj, '.trk')
        disp('Converting .trk to ftr.')
        [thisset,fibidx] = ea_trk2ftr(obj, 'ask');
    else
        error('File is neither a .mat nor .trk!')
    end
else % fibers are already loaded and stored in figure.
    thisset = obj.fibers;
    fibidx = obj.idx;
end

fib_copy.fibs=thisset; % backup of whole original fiberset will be stored in figure.
fib_copy.idx=fibidx;

if ~isempty(connect) % select fibers based on connecting roi info (i.e. delete all other fibers).
    selectedfibs = cell(1,length(connect.rois));
    for roi=1:length(connect.rois) % check connectivities
        in = inhull(thisset,connect.xyz{roi})';
        idxv = repelem(1:numel(fibidx), fibidx)';
        selectedfibs{roi} = unique(idxv(in));
    end
    selectedfibs = unique(cell2mat(selectedfibs(:)));
    thisset = mat2cell(thisset,fibidx,3)';
    thisset = thisset(selectedfibs); % choose selected fibers.
end

%% new visualization part
c = ea_uisetcolor;
if c == 0
    c = NaN;
end
addobjr = ea_showfiber(thisset,fibidx,c);

axis fill

[~, fina] = fileparts(obj);
addbutn = uitoggletool(addht,'CData',ea_get_icn('fibers'),'TooltipString',fina,'OnCallback',{@(src, evt) ea_atlasvisible(addobjr)},'OffCallback',{@(src, evt) ea_atlasinvisible(addobjr)},'State','on','UserData','tract');
storeinfigure(resultfig,addht,addbutn,addobjr,obj,fina,'tract',fib_copy,ft,options); % store rendering in figure.


function objlabel = addlabel(location, label, addht)
set(0, 'CurrentFigure', addht.Parent);
toggle = findobj(addht.Children, 'Type', 'uitoggletool', 'Tag', 'Labels');
objlabel = text(double(location(1)),double(location(2)),double(location(3)),...
    ea_underscore2space(label),...
    'Tag', label,...
    'VerticalAlignment', 'Baseline',...
    'HorizontalAlignment', 'Center',...
    'FontWeight', 'bold',...
    'FontSize', 12,...
    'Color', 'w', ...
    'Visible', toggle.State);
if isempty(toggle.OffCallback)
    toggle.OffCallback = {@atlabelsvisible; {}; 'off'};
end
toggle.OffCallback{2} = [reshape(toggle.OffCallback{2}, [], 1); objlabel];
if isempty(toggle.OnCallback)
    toggle.OnCallback = {@atlabelsvisible; {}; 'on'};
end
toggle.OnCallback{2} = [reshape(toggle.OnCallback{2}, [], 1); objlabel];
setappdata(addht.Parent, 'addht', addht);


function atlabelsvisible(hobj,~,obj,onoff)
labelInd = arrayfun(@(x) isa(x, 'matlab.graphics.primitive.Text'), obj);
if isempty(hobj)
    arrayfun(@(label) set(label,'Visible',onoff), obj(labelInd));
else
    toggleState = flip(arrayfun(@(t) t.State, hobj.Parent.Children(1:end-2)));

    if strcmp(onoff, 'on')
        arrayfun(@(label, state) set(label,'Visible',state), obj(labelInd), toggleState);
    else
        arrayfun(@(label) set(label,'Visible',onoff), obj(labelInd));
    end
end


function storeinfigure(resultfig,addht,addbutn,obj,path,name,type,data,replace,options)
AL=getappdata(resultfig,'AL');
% AL has fields of
% ROI
% ROINAMES
% FTS
% FTSNAMES
% MENU
% GUI
% store info..

if isempty(AL) % initialize AL
    AL.FTS=cell(0);
    AL.ROI=cell(0);
    AL.FTSNAMES=cell(0);
    AL.FTSFILES=cell(0);
    AL.FTSDATA=cell(0);
    AL.FTSBUTN=cell(0);
    AL.ROINAMES=cell(0);
    AL.ROIFILES=cell(0);
    AL.ROIDATA=cell(0);
    AL.MENU=struct;
    AL.GUI=struct;
end

switch type
    case 'tract'
        if replace % fibertract has been there before and has now been selected to be plotted connecting to a roi.
            AL.FTS{replace}=obj;
            AL.FTSNAMES{replace}=name;
            AL.FTSFILES{replace}=path;
            AL.FTSBUTN{replace}=addbutn;
            %         for roi=1:length(AL.ROI) % add connectivity data
            %             AL.GUI.FTS(length(AL.FTS)).ROI(roi)=0;
            %         end
            AL.FTSDATA{replace}=data;
        else
            AL.FTS{end+1}=obj;
            AL.FTSNAMES{end+1}=name;
            AL.FTSFILES{end+1}=path;
            AL.FTSBUTN{end+1}=addbutn;
            for roi=1:length(AL.ROI) % add connectivity data
                AL.GUI.FTS(length(AL.FTS)).ROI(roi)=0;
            end
            AL.FTSDATA{end+1}=data;

        end
    case 'roi'
        AL.ROI{end+1}=obj;
        AL.ROINAMES{end+1}=name;
        AL.ROIFILES{end+1}=path;
        AL.ROIDATA{end+1}=data;
        for ft=1:length(AL.FTS) % add connectivity data
            AL.GUI.FTS(ft).ROI(end+1)=0;
        end
end

% build menu for toggling
try
    delete(AL.MENU.MAINMENU)
end

if ~isempty(AL.FTS) % only build fibertracking menu if there is at least one fiberset.
    AL.MENU.MAINMENU=uimenu(resultfig,'Label','Fibertracking');
    for ft=1:length(AL.FTS)
        AL.MENU.FTMENU(ft) = uimenu(AL.MENU.MAINMENU,'Label',AL.FTSNAMES{ft});
        for roi=1:length(AL.ROI)
            AL.MENU.ROIMENU(ft,roi)=uimenu(AL.MENU.FTMENU(ft),'Label',AL.ROINAMES{roi},'Callback',{@dotracking,ft,roi,resultfig,addht,options});

            set(AL.MENU.ROIMENU(ft,roi),'Checked',binary2onoff(AL.GUI.FTS(ft).ROI(roi))) % set checks on menu.

        end
    end
end

axis fill

% store in figure.
setappdata(resultfig,'addht',addht)
setappdata(resultfig,'AL',AL);


function dotracking(hobj,ev,ft,roi,resultfig,addht,options)

AL=getappdata(resultfig,'AL'); %structure containing all the ft and roi handles.

set(hobj,'Checked',binary2onoff(~AL.GUI.FTS(ft).ROI(roi))) % check if this has been attached and uncheck if unattached.
AL.GUI.FTS(ft).ROI(roi)=~AL.GUI.FTS(ft).ROI(roi); % flip GUI info.

% delete and update fibertract.
delete(AL.FTS{ft}(:))
delete(AL.FTSBUTN{ft}); % delete togglebutton

%% define connect struct here:

connect.rois=find(AL.GUI.FTS(ft).ROI);
connect.xyz=AL.ROIDATA(connect.rois);

setappdata(resultfig,'AL',AL);

if isempty(connect.rois) % don't even send connect structure since this will save time.
    addfibertract(AL.FTSDATA{ft},resultfig,addht,AL.FTSNAMES{ft},[],ft,options)
else
    addfibertract(AL.FTSDATA{ft},resultfig,addht,AL.FTSNAMES{ft},connect,ft,options)
end


function str=binary2onoff(bin)
str='off';
if bin
    str='on';
end


function in = inhull(testpts,xyz,tess,tol)

% Copyright (c) 2009, John D'Errico
% All rights reserved.
%
% Redistribution and use in source and binary forms, with or without
% modification, are permitted provided that the following conditions are
% met:
%
%     * Redistributions of source code must retain the above copyright
%       notice, this list of conditions and the following disclaimer.
%     * Redistributions in binary form must reproduce the above copyright
%       notice, this list of conditions and the following disclaimer in
%       the documentation and/or other materials provided with the distribution
%
% THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS"
% AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
% IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
% ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS BE
% LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR
% CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF
% SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
% INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
% CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
% ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
% POSSIBILITY OF SUCH DAMAGE.

% inhull: tests if a set of points are inside a convex hull
% usage: in = inhull(testpts,xyz)
% usage: in = inhull(testpts,xyz,tess)
% usage: in = inhull(testpts,xyz,tess,tol)
%
% arguments: (input)
%  testpts - nxp array to test, n data points, in p dimensions
%       If you have many points to test, it is most efficient to
%       call this function once with the entire set.
%
%  xyz - mxp array of vertices of the convex hull, as used by
%       convhulln.
%
%  tess - tessellation (or triangulation) generated by convhulln
%       If tess is left empty or not supplied, then it will be
%       generated.
%
%  tol - (OPTIONAL) tolerance on the tests for inclusion in the
%       convex hull. You can think of tol as the distance a point
%       may possibly lie outside the hull, and still be perceived
%       as on the surface of the hull. Because of numerical slop
%       nothing can ever be done exactly here. I might guess a
%       semi-intelligent value of tol to be
%
%         tol = 1.e-13*mean(abs(xyz(:)))
%
%       In higher dimensions, the numerical issues of floating
%       point arithmetic will probably suggest a larger value
%       of tol.
%
%       DEFAULT: tol = 0
%
% arguments: (output)
%  in  - nx1 logical vector
%        in(i) == 1 --> the i'th point was inside the convex hull.
%
% Example usage: The first point should be inside, the second out
%
%  xy = randn(20,2);
%  tess = convhulln(xy);
%  testpoints = [ 0 0; 10 10];
%  in = inhull(testpoints,xy,tess)
%
% in =
%      1
%      0
%
% A non-zero count of the number of degenerate simplexes in the hull
% will generate a warning (in 4 or more dimensions.) This warning
% may be disabled off with the command:
%
%   warning('off','inhull:degeneracy')
%
% See also: convhull, convhulln, delaunay, delaunayn, tsearch, tsearchn
%
% Author: John D'Errico
% e-mail: woodchips@rochester.rr.com
% Release: 3.0
% Release date: 10/26/06

% get array sizes
% m points, p dimensions
p = size(xyz,2);
[n,c] = size(testpts);
if p ~= c
    error 'testpts and xyz must have the same number of columns'
end
if p < 2
    error 'Points must lie in at least a 2-d space.'
end

% was the convex hull supplied?
if (nargin<3) || isempty(tess)
    tess = convhulln(xyz);
end
[nt,c] = size(tess);
if c ~= p
    error 'tess array is incompatible with a dimension p space'
end

% was tol supplied?
if (nargin<4) || isempty(tol)
    tol = 0;
end

% build normal vectors
switch p
    case 2
        % really simple for 2-d
        nrmls = (xyz(tess(:,1),:) - xyz(tess(:,2),:)) * [0 1;-1 0];

        % Any degenerate edges?
        del = sqrt(sum(nrmls.^2,2));
        degenflag = (del<(max(del)*10*eps));
        if sum(degenflag)>0
            warning('inhull:degeneracy',[num2str(sum(degenflag)), ...
                ' degenerate edges identified in the convex hull'])

            % we need to delete those degenerate normal vectors
            nrmls(degenflag,:) = [];
            nt = size(nrmls,1);
        end
    case 3
        % use vectorized cross product for 3-d
        ab = xyz(tess(:,1),:) - xyz(tess(:,2),:);
        ac = xyz(tess(:,1),:) - xyz(tess(:,3),:);
        nrmls = cross(ab,ac,2);
        degenflag = false(nt,1);
    otherwise
        % slightly more work in higher dimensions,
        nrmls = zeros(nt,p);
        degenflag = false(nt,1);
        for i = 1:nt
            % just in case of a degeneracy
            % Note that bsxfun COULD be used in this line, but I have chosen to
            % not do so to maintain compatibility. This code is still used by
            % users of older releases.
            %  nullsp = null(bsxfun(@minus,xyz(tess(i,2:end),:),xyz(tess(i,1),:)))';
            nullsp = null(xyz(tess(i,2:end),:) - repmat(xyz(tess(i,1),:),p-1,1))';
            if size(nullsp,1)>1
                degenflag(i) = true;
                nrmls(i,:) = NaN;
            else
                nrmls(i,:) = nullsp;
            end
        end
        if sum(degenflag)>0
            warning('inhull:degeneracy',[num2str(sum(degenflag)), ...
                ' degenerate simplexes identified in the convex hull'])

            % we need to delete those degenerate normal vectors
            nrmls(degenflag,:) = [];
            nt = size(nrmls,1);
        end
end

% scale normal vectors to unit length
nrmllen = sqrt(sum(nrmls.^2,2));
% again, bsxfun COULD be employed here...
%  nrmls = bsxfun(@times,nrmls,1./nrmllen);
nrmls = nrmls.*repmat(1./nrmllen,1,p);

% center point in the hull
center = mean(xyz,1);

% any point in the plane of each simplex in the convex hull
a = xyz(tess(~degenflag,1),:);

% ensure the normals are pointing inwards
% this line too could employ bsxfun...
%  dp = sum(bsxfun(@minus,center,a).*nrmls,2);
dp = sum((repmat(center,nt,1) - a).*nrmls,2);
k = dp<0;
nrmls(k,:) = -nrmls(k,:);

% We want to test if:  dot((x - a),N) >= 0
% If so for all faces of the hull, then x is inside
% the hull. Change this to dot(x,N) >= dot(a,N)
aN = sum(nrmls.*a,2);

% test, be careful in case there are many points
in = false(n,1);

% if n is too large, we need to worry about the
% dot product grabbing huge chunks of memory.
memblock = 1e6;
blocks = max(1,floor(n/(memblock/nt)));
aNr = repmat(aN,1,length(1:blocks:n));
for i = 1:blocks
    j = i:blocks:n;
    if size(aNr,2) ~= length(j)
        aNr = repmat(aN,1,length(j));
    end
    in(j) = all((nrmls*testpts(j,:)' - aNr) >= -tol,1)';
end