source: issm/trunk/src/m/classes/public/ismodelselfconsistent.m@ 5442

function ismodelselfconsistent(md),
%ISMODELSELFCONSISTENT - check that model forms a closed form solvable problem.
%
%   Usage:
%      ismodelselfconsistent(md),

%tolerance we use in litmus checks for the consistency of the model
tolerance=10^-12;
%check usage {{{1
if nargin~=1,
        help ismodelselfconsistent
        error('ismodelselfconsistent error message: wrong usage');
end
%}}}

%recursive call for TRANSIENT {{{1
if (md.analysis_type==Transient2DSolutionEnum | md.analysis_type==Transient3DSolutionEnum),
        if md.dt<=0,
                error('model not consistent: field dt must be positive for a transient run')
        end

        %recursive call to ismodelselfconsistent
        if (md.dim==2),
                analysis=[DiagnosticSolutionEnum PrognosticSolutionEnum];
        else
                analysis=[DiagnosticSolutionEnum PrognosticSolutionEnum ThermalSolutionEnum];
        end

        for i=1:length(analysis),
                md.analysis_type=analysis(i);
                ismodelselfconsistent(md);
        end
end
%}}}

% Common checks
%COUNTER {{{1
if md.counter<3,
        error(['model ' md.name ' is not correctly configured. You forgot one step in the following sequence (mesh, geography, parameterize,setelementstype)!']);
end
%}}}
%NAME{{{1
if isempty(md.name),
        error(['model is not correctly configured: missing name!']);
end
%}}}
%ELEMENTS{{{1
fields={'elements'};
if (md.dim==2),
        checksize(md,fields,[md.numberofelements 3]);
else
        checksize(md,fields,[md.numberofelements 6]);
end
%}}}
%ELEMENTSTYPE{{{1
%Check the size of elements_type
fields={'elements_type'};
checksize(md,fields,[md.numberofelements 1]);
%Check the values of elements_type
checkvalues(md,{'elements_type'},[MacAyealApproximationEnum() HutterApproximationEnum() PattynApproximationEnum() MacAyealPattynApproximationEnum() StokesApproximationEnum() NoneApproximationEnum()]);
if (md.dim==2),
        checkvalues(md,{'elements_type'},[MacAyealApproximationEnum() HutterApproximationEnum()]);
end
if (md.ismacayealpattyn==0 && md.ishutter==0 && md.isstokes==0),
        error(['model not consistent: no elements type set for this model. at least one of ismacayealpattyn, ishutter and isstokes need to be =1']);
end
%}}}
%VERTICESTYPE{{{1
%Check the size of verticess_type
fields={'vertices_type'};
checksize(md,fields,[md.numberofgrids 1]);
%Check the values of vertices_type
checkvalues(md,{'vertices_type'},[MacAyealApproximationEnum() HutterApproximationEnum() PattynApproximationEnum() MacAyealPattynApproximationEnum() StokesApproximationEnum() NoneApproximationEnum()]);
if (md.dim==2),
        checkvalues(md,{'vertices_type'},[MacAyealApproximationEnum() HutterApproximationEnum()]);
end
if (md.ismacayealpattyn==0 && md.ishutter==0 && md.isstokes==0),
        error(['model not consistent: no elements type set for this model. at least one of ismacayealpattyn, ishutter and isstokes need to be =1']);
end
%}}}
%DG {{{1
if md.prognostic_DG==1;
        %CHECK THE COMPATIBILITY OF THE EDGES
        fields={'edges'};
        checksize(md,fields,[NaN 4]);
        fields={'edges(:,1:3)'};
        checknan(md,fields);
        checkgreaterstrict(md,fields,0);
end
%}}}
%PRESSURELOAD{{{1
if (md.dim==2),
        fields={'pressureload'};
        checksize(md,fields,[NaN 4]);
elseif md.dim==3,
        fields={'pressureload'};
        checksize(md,fields,[NaN 6]);
else
        error('dim should be either 2 3');
end
checkvalues(md,{'pressureload(:,end)'},[WaterEnum() AirEnum()]);
%}}}
%NO NAN {{{1
fields={'numberofelements','numberofgrids','x','y','z','drag_coefficient','drag_type','drag_p','drag_q',...
        'rho_ice','rho_water','rheology_B','elementoniceshelf','surface','thickness','bed','g','lowmem','sparsity','nsteps','maxiter',...
        'tolx','np','eps_res','max_nonlinear_iterations','exclusive','rheology_n','gridonbed','gridonsurface','elementonbed','elementonsurface','deltaH','DeltaH','timeacc','timedec'};
checknan(md,fields);
%}}}}
%FIELDS >= 0 {{{1
fields={'numberofelements','numberofgrids','elements','drag_coefficient','drag_type','drag_p','drag_q',...
        'rho_ice','rho_water','rheology_B','elementoniceshelf','thickness','g','eps_res','max_nonlinear_iterations','eps_rel','eps_abs','nsteps','maxiter','tolx','exclusive',...
        'sparsity','lowmem','rheology_n','gridonbed','gridonsurface','elementonbed','elementonsurface','deltaH','DeltaH','timeacc','timedec'};
checkgreater(md,fields,0);
%}}}
%FIELDS > 0 {{{1
fields={'numberofelements','numberofgrids','elements','drag_type','drag_p',...
        'rho_ice','rho_water','rheology_B','thickness','g','max_nonlinear_iterations','eps_res','eps_rel','eps_abs','maxiter','tolx',...
        'sparsity','deltaH','DeltaH','timeacc','timedec'};
checkgreaterstrict(md,fields,0);
%}}}
%SIZE NUMBEROFELEMENTS {{{1
fields={'drag_p','drag_q','elementoniceshelf','rheology_n','elementonbed'};
checksize(md,fields,[md.numberofelements 1]);
%}}}
%SIZE NUMBEROFGRIDS {{{1
fields={'x','y','z','rheology_B','drag_coefficient','melting_rate','accumulation_rate','surface','thickness','bed','gridonbed','gridonsurface'};
checksize(md,fields,[md.numberofgrids 1]);
%}}}
%OTHER SIZES {{{1
fields={'spcvelocity'};
checksize(md,fields,[md.numberofgrids 6]);
%}}}
%THICKNESS = SURFACE - BED {{{1
if any((md.thickness-md.surface+md.bed)>tolerance),
        error(['model not consistent: model ' md.name ' violates the equality thickness=surface-bed!']);
end
%}}}
%RIFTS{{{1
if md.numrifts,
        if ~(md.dim==2),
                error(['model not consistent: models with rifts are only supported in 2d for now!']);
        end
        if ~isstruct(md.rifts),
                error(['model not consistent: md.rifts should be a structure!']);
        end
        if ~isempty(find(md.segmentmarkers>=2)),
                %We have segments with rift markers, but no rift structure!
                error(['model not consistent: model ' md.name ' should be processed for rifts (run meshprocessrifts)!']);
        end
        %Check that rifts are filled with proper material
        checkvalues(md,{'rifts.fill'},[WaterEnum() AirEnum() IceEnum() MelangeEnum()]);
else
        if ~isnans(md.rifts),
                error(['model not consistent: md.rifts shoud be NaN since md.numrifts is 0!']);
        end
end
%}}}
%FLAGS (0 or 1){{{1
if ~ismember(md.artificial_diffusivity,[0 1]),
        error('model not consistent: artificial_diffusivity should be a scalar (1 or 0)');
end
if ~ismember(md.prognostic_DG,[0 1]),
        error('model not consistent: prognostic_DG should be a scalar (1 or 0)');
end
if ~ismember(md.lowmem,[0 1]),
        error(['model not consistent: model ' md.name ' lowmem field should be 0 or 1']);
end
%}}}
%PARAMETEROUTPUT {{{1
if md.numoutput~=length(md.parameteroutput),
        error('model not consistent: numoutput should be the same size as parameteroutput');
end
%}}}
%CONNECTIVITY {{{1
if (md.dim==2),
        if md.connectivity<9, 
                error('model not consistent: connectivity should be at least 9 for 2d models');
        end
end
if md.dim==3,
        if md.connectivity<24, 
                error('model not consistent: connectivity should be at least 24 for 3d models');
        end
end
%}}}
%PARALLEL{{{1
if ~strcmpi(md.cluster,'none'),

        %NAN VALUES
        fields={'time','np'};
        checknan(md,fields);

        %FIELD > 0
        fields={'time','np'};
        checkgreaterstrict(md,fields,0);

end
%}}}

% Solution checks
%DIAGNOSTIC{{{1
if md.analysis_type==DiagnosticSolutionEnum,

        %HUTTER ON ICESHELF WARNING
        if any(md.elements_type==HutterApproximationEnum & md.elementoniceshelf),
                disp(sprintf('\n !!! Warning: Hutter''s model is not consistent on ice shelves !!!\n'));
        end

        %SINGULAR
        if ~any(sum(md.spcvelocity(:,1:2),2)==2),
                error(['model not consistent: model ' md.name ' is not well posed (singular). You need at least one grid with fixed velocity!'])
        end

        %DIRICHLET IF THICKNESS <= 0
        if any(md.thickness<=0),
                pos=find(md.thickness<=0);
                if any(find(md.spcthickness(pos,1)==0)),
                        error(['model not consistent: model ' md.name ' has some grids with 0 thickness']);
                end
        end

        %INITIAL VELOCITY
        if length(md.vx)==md.numberofgrids & length(md.vy)==md.numberofgrids,
                fields={'vx','vy'};
                checknan(md,fields);
        end
end
%}}}
%PROGNOSTIC{{{1
if md.analysis_type==PrognosticSolutionEnum,

        %INITIAL VELOCITIES
        fields={'vx','vy'};
        checksize(md,fields,[md.numberofgrids 1]);
        checknan(md,fields);

        %CHECK THAT WE ARE NOT FULLY CONSTRAINED
        if (md.dim==2),
                if isempty(find(~md.spcthickness(:,1))),
                        error(['model not consistent: model ' md.name ' is totally constrained for prognostic, no need to solve!']);
                end
        end

end
%}}}
%STEADYSTATE{{{1
if md.analysis_type==SteadystateSolutionEnum,

        %NDT
        if md.dt~=0,
                error(['model not consistent: for a steadystate computation, dt must be zero.']);
        end

        %PRESSURE
        if isnans(md.pressure),
                error(['model not consistent: for a steadystate computation, the model must have an initial pressure, even lithostatic will do.']);
        end

        %eps: 
        if isnan(md.eps_rel),
                error(['model not consistent: for a steadystate computation, eps_rel (relative convergence criterion) must be defined!']);
        end

        %dim: 
        if (md.dim==2),
                error(['model not consistent: for a steadystate computation, model needs to be 3d']);
        end
end
%}}}
%THERMAL {{{1
%THERMAL STEADY AND THERMAL TRANSIENT
if md.analysis_type==ThermalSolutionEnum,

        %EXTRUSION
        if (md.dim==2),
                error(['model not consistent: for a ' md.analysis_type ' computation, the model must be 3d, extrude it first!'])
        end

        %CHECK THAT WE ARE NOT FULLY CONSTRAINED
        if isempty(find(~md.spctemperature(:,1))),
                error(['model not consistent: model ' md.name ' is totally constrained for temperature, no need to solve!']);
        end

        %VELOCITIES AND PRESSURE
        fields={'vx','vy','vz','pressure'};
        checksize(md,fields,[md.numberofgrids 1]);
        checknan(md,fields);

end

%THERMAL TRANSIENT
if md.analysis_type==ThermalSolutionEnum & md.dt~=0,

        %DT and NDT
        fields={'dt','ndt'};
        checkgreaterstrict(md,fields,0);

        %INITIAL TEMPERATURE, MELTING AND ACCUMULATION
        fields={'temperature','accumulation_rate','melting_rate'};
        checksize(md,fields,[md.numberofgrids 1]);
        checknan(md,fields);

        %INITIAL TEMPERATURE
        fields={'temperature','spctemperature(:,2)','observed_temperature'};
        checkgreater(md,fields,0)

end
%}}}
%BALANCEDTHICKNESS{{{1
if md.analysis_type==BalancedthicknessSolutionEnum

        %VELOCITIES MELTING AND ACCUMULATION
        fields={'vx','vy','accumulation_rate','melting_rate','dhdt'};
        checksize(md,fields,[md.numberofgrids 1]);
        checknan(md,fields);

        %SPC                             
        if ~md.prognostic_DG,
                if any(md.spcthickness(find(md.gridonboundary))~=1),             
                        error(['model not consistent: model ' md.name ' should have all the nodes on boundary constrained in field spcthickness']);                      
                end 
        end
end
%}}}
%BALANCEDVELOCITIES{{{1
if md.analysis_type==BalancedvelocitiesSolutionEnum

        %VELOCITIES MELTING AND ACCUMULATION
        fields={'vx','vy','accumulation_rate','melting_rate'};
        checksize(md,fields,[md.numberofgrids 1]);
        checknan(md,fields);

        %SPC
        if any(md.spcvelocity(find(md.gridonboundary),[1:2])~=1),
                error(['model not consistent: model ' md.name ' should have all the nodes on boundary constrained in field spcvelocity']);
        end
end
%}}}
%CONTROL{{{1
if md.control_analysis,

        %CONTROL TYPE
        if ~isnumeric(md.control_type),
                error('model not consistent: control_type should be an enum');
        end
        checkvalues(md,{'control_type'},[DhDtEnum DragCoefficientEnum RheologyBbarEnum]);

        %LENGTH CONTROL FIELDS
        fields={'maxiter','optscal','cm_responses','cm_jump'};
        checksize(md,fields,[md.nsteps 1]);

        %RESPONSES
        checkvalues(md,{'cm_responses'},[SurfaceAbsVelMisfitEnum SurfaceRelVelMisfitEnum SurfaceLogVelMisfitEnum SurfaceLogVxVyMisfitEnum SurfaceAverageVelMisfitEnum ThicknessAbsMisfitEnum]);

        %WEIGHTS
        fields={'weights'};
        checksize(md,fields,[md.numberofgrids 1]);
        checkgreater(md,fields,0);

        %OBSERVED VELOCITIES
        if md.analysis_type==BalancedthicknessSolutionEnum
                fields={'thickness_obs'};
                checksize(md,fields,[md.numberofgrids 1]);
                checknan(md,fields);
        else
                fields={'vx_obs','vy_obs'};
                checksize(md,fields,[md.numberofgrids 1]);
                checknan(md,fields);
        end

        %DIRICHLET IF THICKNESS <= 0
        if any(md.thickness<=0),
                pos=find(md.thickness<=0);
                if any(find(md.spcthickness(pos,1)==0)),
                        error(['model not consistent: model ' md.name ' has some grids with 0 thickness']);
                end
        end

        %parameters
        fields={'cm_noisedmp'};
        checknan(md,fields);
end
%}}}
%QMU {{{1
if md.qmu_analysis,
        if md.qmu_params.evaluation_concurrency~=1,
                error(['model not consistent: concurrency should be set to 1 when running dakota in library mode']);
        end
        if ~isempty(md.part),
                if numel(md.part)~=md.numberofgrids,
                        error(['model not consistent: user supplied partition for qmu analysis should have size md.numberofgrids x 1 ']);
                end
                if find(md.part)>=md.numberofgrids,
                        error(['model not consistent: user supplied partition should be indexed from 0 (c-convention)']);
                end
                if min(md.part)~=0,
                        error(['model not consistent: partition vector not indexed from 0 on']);
                end
                if max(md.part)>=md.numberofgrids,
                        error(['model not consistent: partition vector cannot have maximum index larger than number of grids']);
                end
                if ~isempty(find(md.part<0)),
                        error(['model not consistent: partition vector cannot have values less than 0']);
                end
                if ~isempty(find(md.part>=md.npart)),
                        error(['model not consistent: partition vector cannot have values more than md.npart-1']);
                end
                if max(md.part)>=md.npart,
                        error(['model not consistent: for qmu analysis, partitioning vector cannot go over npart, number of partition areas']);
                end
        end
        if md.eps_rel>1.1*10^-5,
                error(['model not consistent: for qmu analysis, eps_rel should be least than 10^-5, 10^-15 being a better value']);
        end
end

if strcmpi(md.analysis_type,'qmu'),
        if ~strcmpi(md.cluster,'none'),
                if md.waitonlock==0,
                        error(['model is not correctly configured: waitonlock should be activated when running qmu in parallel mode!']);
                end
        end
end
%}}}

end

%checks additional functions
%checklength {{{1
function checklength(md,fields,fieldlength)
        %CHECKSIZE - check length of a field
        for i=1:length(fields),
                eval(['field=md.' fields{i} ';']);
                if length(field)~=fieldlength,
                        error(['model not consistent: field ' fields{i} ' length should be ' num2str(fieldlength)]);
                end
        end
end
%}}}
%checksize {{{1
function checksize(md,fields,fieldsize)
        %CHECKSIZE - check size of a field
        for i=1:length(fields),
                eval(['field=md.' fields{i} ';']);
                if isnan(fieldsize(1)),
                        if (size(field,2)~=fieldsize(2)),
                                error(['model not consistent: field ' fields{i} ' should have ' num2str(fieldsize(2)) ' columns']);
                        end
                elseif isnan(fieldsize(2)),
                        if (size(field,1)~=fieldsize(1)),
                                error(['model not consistent: field ' fields{i} ' should have ' num2str(fieldsize(1)) ' rows']);
                        end
                else
                        if ((size(field)~=fieldsize(1)) |  (size(field,2)~=fieldsize(2)))
                                error(['model not consistent: field ' fields{i} ' size should be ' num2str(fieldsize(1)) ' x ' num2str(fieldsize(2))]);
                        end
                end
        end
end
%}}}
%checknan {{{1
function checknan(md,fields)
        %CHECKNAN - check nan values of a field
        for i=1:length(fields),
                eval(['field=reshape(md.' fields{i} ',[prod(size(md.' fields{i} ')) 1]);']);
                if any(isnan(field)),
                        error(['model not consistent: NaN values found in field ' fields{i}]);
                end
        end
end
%}}}
%checkreal{{{1
function checkreal(md,fields)
        %CHECKREAL - check real values of a field
        for i=1:length(fields),
                eval(['field=reshape(md.' fields{i} ',[prod(size(md.' fields{i} ')) 1]);']);
                if any(~isreal(field)),
                        error(['model not consistent: complex values found in field ' fields{i}]);
                end
        end
end
%}}}
%checkgreaterstrict{{{1
function checkgreaterstrict(md,fields,lowerbound)
        %CHECKGREATERSTRICT - check values of a field
        for i=1:length(fields),
                eval(['field=reshape(md.' fields{i} ',[prod(size(md.' fields{i} ')) 1]);']);
                if any(field<=lowerbound),
                        error(['model not consistent: field ' fields{i} ' should have values stricly above ' num2str(lowerbound)]);
                end
        end
end
%}}}
%checkgreater{{{1
function checkgreater(md,fields,lowerbound)
        %CHECKGREATER - check values of a field
        for i=1:length(fields),
                eval(['field=reshape(md.' fields{i} ',[prod(size(md.' fields{i} ')) 1]);']);
                if any(field<lowerbound),
                        error(['model not consistent: field ' fields{i} ' should have values above ' num2str(lowerbound)]);
                end
        end
end
%}}}
%checklessstrict{{{1
function checklessstrict(md,fields,upperbound)
        %CHECKLESSSTRICT - check values of a field
        for i=1:length(fields),
                eval(['field=reshape(md.' fields{i} ',[prod(size(md.' fields{i} ')) 1]);']);
                if any(field>=upperbound),
                        error(['model not consistent: field ' fields{i} ' should have values stricly below ' num2str(upperbound)]);
                end
        end
end
%}}}
%checkless{{{1
function checkless(md,fields,upperbound)
        %CHECKLESS - check values of a field
        for i=1:length(fields),
                eval(['field=reshape(md.' fields{i} ',[prod(size(md.' fields{i} ')) 1]);']);
                if any(field>upperbound),
                        error(['model not consistent: field ' fields{i} ' should have values below ' num2str(upperbound)]);
                end
        end
end
%}}}
%checkvalues {{{1
function checkvalues(md,fields,values)
        %CHECKVALUE - check that a field has specified values
        for i=1:length(fields),
                eval(['field=reshape(md.' fields{i} ',[prod(size(md.' fields{i} ')) 1]);']);
                if any(~ismember(field,values)),
                        error(['model not consistent: field ' fields{i} ' should have values in ' num2str(values)]);
                end
        end
end
%}}}