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msm/ShoulderModel_NoElbow/TOOLBOX_Kinematics/KINEMATICS_TOOL_view_reconstructed_motion.m
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KINEMATICS_TOOL_view_reconstructed_motion.m
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%{
--------------------------------------------------------------------------
SCRIPT FOR RUNNING A VIDEO OF THE RECONSTRUCTED MOTION TOGETHER WITH THE
MEASURED MOTION (IN BLUE AND GREEN)
--------------------------------------------------------------------------
%}
%--------------------------------------------------------------------------
% define where to show the motion
%--------------------------------------------------------------------------
set(KRHandle, 'currentaxes', KRPlotHandles.View_Motion_Axes); hold on;
%--------------------------------------------------------------------------
% I decided to show the smoothened motion
%--------------------------------------------------------------------------
% creat the time
% take the motion time span
final_time = str2double(get(KRGUIHandle.TimeFrameEdit, 'string'));
% define the elapsed time necessary to connect knot i-1 to i
max_frame = 100*final_time;
%h = final_time/(length(SSDATA.Measured_Kinematics.IJ)-1);
h = final_time/(max_frame-1);
% creat the time
time = 0: h: final_time;
% define numerical values of the acceleration, velocity, and coordinate for
% the specific GC_id
% option 1: directly from IK
q = SSDATA.Joint_Angle_Reconstruction;
% option 2: smoothened motion
% for GC_id = 1:11
% q(GC_id,:) = polyval(SSDATA.Joint_Angle_Coefficients(GC_id, :), time);
% end
%--------------------------------------------------------------------------
% define the bony landmarks
%--------------------------------------------------------------------------
% run through the motion while skipping some points.
StepSize = 3; % defines the step size that you want to go over the data
%F(1) = getframe(gca); % get the first video frame
ii = 0; % to count the video frames
for i = 1:StepSize:max_frame%length(SSDATA.Measured_Kinematics.IJ)
ii = ii + 1; % to count the video frames
%--------------------------------------------------------------------------
% define the wireframe of the reconstructed motion
%--------------------------------------------------------------------------
% define the rotation matrices from the generalized coordinates vector (Euler angles)
Rmat = MAIN_TOOL_geometry_functions('Build Rotation Matrices From Euler Angles', q(:, i), BLDATA);
Rc = Rmat(:,1:3);
Rs = Rmat(:,4:6);
Rh = Rmat(:,7:9);
Ru = Rmat(:,10:12);
Rr = Rmat(:,13:15);
% plot the meshing data
% Set the correct current bony landmarks
BLDATA = MAIN_TOOL_geometry_functions('Update Current Bony Landmark Data from Joint Rotation Matrices', Rmat(:,1:3), Rmat(:,4:6), Rmat(:,7:9), Rmat(:,10:12), Rmat(:,13:15), BLDATA);
% % Create the 3-D Muscle elements
% for MuscleId = 1:size(MWDATA,1)
%
% % % Origin & Insertion
% VISUALISATION_view_muscle_origins([], MWDATA, BLDATA, MuscleId);
% VISUALISATION_view_muscle_insertions([], MWDATA, BLDATA, MuscleId);
%
% % Muscle Segements
% for SegmentId = 1:MWDATA{MuscleId,1}.MSCInfo.NbSegments
% % Only one segment per muscle to start.
% % plot3(0, 0, 0,...
% % 'color', 'red', 'linewidth', 2, 'marker', 'o', 'markerfacecolor', 'red', 'markersize', 6);
% VISUALISATION_view_muscle_segement([], MWDATA, BLDATA, MuscleId, SegmentId);
% end
%
% end
%
% % Create the 3-D Meshing Visualisations
% % if i == 1
% % KRMOVPlotHandles.WireFrameHandle(1) = VISUALISATION_view_bone_meshing([], MEDATA, 0, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(2) = VISUALISATION_view_bone_meshing([], MEDATA, 1, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(3) = VISUALISATION_view_bone_meshing([], MEDATA, 2, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(4) = VISUALISATION_view_bone_meshing([], MEDATA, 3, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(5) = VISUALISATION_view_bone_meshing([], MEDATA, 4, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(6) = VISUALISATION_view_bone_meshing([], MEDATA, 5, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(7) = VISUALISATION_view_bone_meshing([], MEDATA, 6, BLDATA);
% % else
% % KRMOVPlotHandles.WireFrameHandle(1) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(1), MEDATA, 0, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(2) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(2), MEDATA, 1, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(3) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(3), MEDATA, 2, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(4) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(4), MEDATA, 3, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(5) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(5), MEDATA, 4, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(6) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(6), MEDATA, 5, BLDATA);
% % KRMOVPlotHandles.WireFrameHandle(7) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(7), MEDATA, 6, BLDATA);
% % end
% VISUALISATION_view_bone_meshing([], MEDATA, 0, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 1, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 2, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 3, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 4, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 5, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 6, BLDATA);
%
% % Set some of the global properties for the entire plot
% light('Position',[1 0 0],'Style','infinite');
% light('Position',[0 0 -10],'Style','local');
% light('Position',[10 -50 0],'Style','infinite');
% colormap copper;
% %box on;
% material dull;
% %axis equal;
% axis ([-100 800 -400 800 -700 800])
% %zoom(1);
% %view([155, 15]);
% Get Initial Rotation Matrices
Rc_initial = BLDATA.Initial_Matrices_L2A.Rc;
Rs_initial = BLDATA.Initial_Matrices_L2A.Rs;
Rh_initial = BLDATA.Initial_Matrices_L2A.Rh;
Ru_initial = BLDATA.Initial_Matrices_L2A.Ru;
Rr_initial = BLDATA.Initial_Matrices_L2A.Rr;
% Get all initial configurations of the landmarks
IJ_initial = BLDATA.Initial_Points.IJ;
PX_initial = BLDATA.Initial_Points.PX;
T8_initial = BLDATA.Initial_Points.T8;
C7_initial = BLDATA.Initial_Points.C7;
SC_initial = BLDATA.Initial_Points.SC;
AC_initial = BLDATA.Initial_Points.AC;
AA_initial = BLDATA.Initial_Points.AA;
TS_initial = BLDATA.Initial_Points.TS;
AI_initial = BLDATA.Initial_Points.AI;
GH_initial = BLDATA.Initial_Points.GH;
HU_initial = BLDATA.Initial_Points.HU;
EL_initial = BLDATA.Initial_Points.EL;
EM_initial = BLDATA.Initial_Points.EM;
CP_initial = BLDATA.Initial_Points.CP;
US_initial = BLDATA.Initial_Points.US;
RS_initial = BLDATA.Initial_Points.RS;
% define the configurations of the landmarks
IJ = IJ_initial;
PX = PX_initial;
T8 = T8_initial;
C7 = C7_initial;
SC = SC_initial;
AC = Rc*Rc_initial'*(AC_initial - SC_initial) + SC_initial;
AA = Rs*Rs_initial'*(AA_initial - AC_initial) + AC;
TS = Rs*Rs_initial'*(TS_initial - AC_initial) + AC;
AI = Rs*Rs_initial'*(AI_initial - AC_initial) + AC;
GH = Rs*Rs_initial'*(GH_initial - AC_initial) + AC;
HU = Rh*Rh_initial'*(HU_initial - GH_initial) + GH;
EL = Rh*Rh_initial'*(EL_initial - GH_initial) + GH;
EM = Rh*Rh_initial'*(EM_initial - GH_initial) + GH;
US = Ru*Ru_initial'*(US_initial - HU_initial) + HU;
CP = Rh*Rh_initial'*(CP_initial - GH_initial) + GH;
RS = Rr*Rr_initial'*(RS_initial - CP_initial) + CP;
% Build the bone wire frames for plotting purposes
Reconstructed_WF_Thorax = [IJ, PX, T8, C7, IJ];
Reconstructed_WF_Clavicula = [SC, AC];
Reconstructed_WF_Scapula = [AC, AA, TS, AI, GH, AC];
Reconstructed_WF_Humerus = [GH, HU, EL, EM];
Reconstructed_WF_Ulna = [CP, HU, EM, US];
Reconstructed_WF_Radius = [CP, RS];
%
%--------------------------------------------------------------------------
% define the wireframe of the measured motion
%--------------------------------------------------------------------------
Measured_WF_Thorax = [SSDATA.Measured_Kinematics.IJ(:,i),...
SSDATA.Measured_Kinematics.PX(:,i),...
SSDATA.Measured_Kinematics.T8(:,i),...
SSDATA.Measured_Kinematics.C7(:,i),...
SSDATA.Measured_Kinematics.IJ(:,i)];
Measured_WF_Clavicula = [SSDATA.Measured_Kinematics.SC(:,i),...
SSDATA.Measured_Kinematics.AC(:,i)];
Measured_WF_Scapula = [SSDATA.Measured_Kinematics.AC(:,i),...
SSDATA.Measured_Kinematics.AA(:,i),...
SSDATA.Measured_Kinematics.TS(:,i),...
SSDATA.Measured_Kinematics.AI(:,i),...
SSDATA.Measured_Kinematics.GH(:,i),...
SSDATA.Measured_Kinematics.AC(:,i)];
Measured_WF_Humerus = [SSDATA.Measured_Kinematics.GH(:,i),...
SSDATA.Measured_Kinematics.HU(:,i),...
SSDATA.Measured_Kinematics.EL(:,i),...
SSDATA.Measured_Kinematics.EM(:,i)];
Measured_WF_Ulna = [SSDATA.Measured_Kinematics.CP(:,i),...
SSDATA.Measured_Kinematics.HU(:,i),...
SSDATA.Measured_Kinematics.EM(:,i),...
SSDATA.Measured_Kinematics.US(:,i)];
Measured_WF_Radius = [SSDATA.Measured_Kinematics.CP(:,i),...
SSDATA.Measured_Kinematics.RS(:,i)];
%--------------------------------------------------------------------------
% plot the two wireframes together
%--------------------------------------------------------------------------
% plot reconstructed wireframes
plot3(Reconstructed_WF_Thorax(1,:),...
Reconstructed_WF_Thorax(2,:),...
Reconstructed_WF_Thorax(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', 'o',...
'markerfacecolor', 'blue',...
'markeredgecolor', 'blue');
plot3(Reconstructed_WF_Clavicula(1,:),...
Reconstructed_WF_Clavicula(2,:),...
Reconstructed_WF_Clavicula(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', 'o',...
'markerfacecolor', 'blue',...
'markeredgecolor', 'blue');
plot3(Reconstructed_WF_Scapula(1,:),...
Reconstructed_WF_Scapula(2,:),...
Reconstructed_WF_Scapula(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', 'o',...
'markerfacecolor', 'blue',...
'markeredgecolor', 'blue');
plot3(Reconstructed_WF_Humerus(1,:),...
Reconstructed_WF_Humerus(2,:),...
Reconstructed_WF_Humerus(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', 'o',...
'markerfacecolor', 'blue',...
'markeredgecolor', 'blue');
plot3(Reconstructed_WF_Ulna(1,:),...
Reconstructed_WF_Ulna(2,:),...
Reconstructed_WF_Ulna(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', 'o',...
'markerfacecolor', 'blue',...
'markeredgecolor', 'blue');
plot3(Reconstructed_WF_Radius(1,:),...
Reconstructed_WF_Radius(2,:),...
Reconstructed_WF_Radius(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', 'o',...
'markerfacecolor', 'blue',...
'markeredgecolor', 'blue');
%
% plot measured wireframes
% plot3(Measured_WF_Thorax(1,:),...
% Measured_WF_Thorax(2,:),...
% Measured_WF_Thorax(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', '*',...
% 'markerfacecolor', 'green',...
% 'markeredgecolor', 'green');
% plot3(Measured_WF_Clavicula(1,:),...
% Measured_WF_Clavicula(2,:),...
% Measured_WF_Clavicula(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', '*',...
% 'markerfacecolor', 'green',...
% 'markeredgecolor', 'green');
% plot3(Measured_WF_Scapula(1,:),...
% Measured_WF_Scapula(2,:),...
% Measured_WF_Scapula(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', '*',...
% 'markerfacecolor', 'green',...
% 'markeredgecolor', 'green');
% plot3(Measured_WF_Humerus(1,:),...
% Measured_WF_Humerus(2,:),...
% Measured_WF_Humerus(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', '*',...
% 'markerfacecolor', 'green',...
% 'markeredgecolor', 'green');
% plot3(Measured_WF_Ulna(1,:),...
% Measured_WF_Ulna(2,:),...
% Measured_WF_Ulna(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', '*',...
% 'markerfacecolor', 'green',...
% 'markeredgecolor', 'green');
% plot3(Measured_WF_Radius(1,:),...
% Measured_WF_Radius(2,:),...
% Measured_WF_Radius(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', '*',...
% 'markerfacecolor', 'green',...
% 'markeredgecolor', 'green');
% show extra information about the contact
str1 = ['time = ', num2str(time(i)), ' [s]']; % show the abduction angle on the plot
str1_prop = annotation('textbox',[0.01 0.48 0.15 0.02],'String',str1,'FitBoxToText','off','BackgroundColor','w');
str1_prop.FontSize = 16;
%drawnow;
pause(h);
F(ii) = getframe(gca); % save the frame
if i < 1 + floor((max_frame-1)/StepSize)*StepSize % length(SSDATA.Measured_Kinematics.IJ)
cla
end
end
%}
%{
% TO CHECK MY METHOD
StepSize = 10; % defines the step size that you want to go over the data
%F(1) = getframe(gca); % get the first video frame
ii = 0; % to count the video frames
for i = 1:StepSize:max_frame%length(SSDATA.Measured_Kinematics.IJ)
ii = ii + 1; % to count the video frames
%--------------------------------------------------------------------------
% define the wireframe of the reconstructed motion
%--------------------------------------------------------------------------
% define the rotation matrices from the generalized coordinates vector (Euler angles)
% Rmat = MAIN_TOOL_geometry_functions('Build Rotation Matrices From Euler Angles', q(:, i), BLDATA);
% Rc = Rmat(:,1:3);
% Rs = Rmat(:,4:6);
% Rh = Rmat(:,7:9);
% Ru = Rmat(:,10:12);
% Rr = Rmat(:,13:15);
%
% % plot the meshing data
% % Set the correct current bony landmarks
% BLDATA = MAIN_TOOL_geometry_functions('Update Current Bony Landmark Data from Joint Rotation Matrices', Rmat(:,1:3), Rmat(:,4:6), Rmat(:,7:9), Rmat(:,10:12), Rmat(:,13:15), BLDATA);
% Create the 3-D Meshing Visualisations
% if i == 1
% KRMOVPlotHandles.WireFrameHandle(1) = VISUALISATION_view_bone_meshing([], MEDATA, 0, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(2) = VISUALISATION_view_bone_meshing([], MEDATA, 1, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(3) = VISUALISATION_view_bone_meshing([], MEDATA, 2, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(4) = VISUALISATION_view_bone_meshing([], MEDATA, 3, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(5) = VISUALISATION_view_bone_meshing([], MEDATA, 4, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(6) = VISUALISATION_view_bone_meshing([], MEDATA, 5, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(7) = VISUALISATION_view_bone_meshing([], MEDATA, 6, BLDATA);
% else
% KRMOVPlotHandles.WireFrameHandle(1) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(1), MEDATA, 0, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(2) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(2), MEDATA, 1, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(3) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(3), MEDATA, 2, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(4) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(4), MEDATA, 3, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(5) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(5), MEDATA, 4, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(6) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(6), MEDATA, 5, BLDATA);
% KRMOVPlotHandles.WireFrameHandle(7) = VISUALISATION_view_bone_meshing(KRMOVPlotHandles.WireFrameHandle(7), MEDATA, 6, BLDATA);
% end
% VISUALISATION_view_bone_meshing([], MEDATA, 0, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 1, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 2, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 3, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 4, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 5, BLDATA);
% VISUALISATION_view_bone_meshing([], MEDATA, 6, BLDATA);
%
% % Set some of the global properties for the entire plot
% light('Position',[1 0 0],'Style','infinite');
% light('Position',[0 0 -10],'Style','local');
% light('Position',[10 -50 0],'Style','infinite');
% colormap copper;
% %box on;
% material dull;
% %axis equal;
% axis ([-100 800 -400 800 -700 800])
% %zoom(1);
% %view([155, 15]);
% % Get Initial Rotation Matrices
% Rc_initial = BLDATA.Initial_Matrices_L2A.Rc;
% Rs_initial = BLDATA.Initial_Matrices_L2A.Rs;
% Rh_initial = BLDATA.Initial_Matrices_L2A.Rh;
% Ru_initial = BLDATA.Initial_Matrices_L2A.Ru;
% Rr_initial = BLDATA.Initial_Matrices_L2A.Rr;
%
% % Get all initial configurations of the landmarks
% IJ_initial = BLDATA.Initial_Points.IJ;
% PX_initial = BLDATA.Initial_Points.PX;
% T8_initial = BLDATA.Initial_Points.T8;
% C7_initial = BLDATA.Initial_Points.C7;
% SC_initial = BLDATA.Initial_Points.SC;
% AC_initial = BLDATA.Initial_Points.AC;
% AA_initial = BLDATA.Initial_Points.AA;
% TS_initial = BLDATA.Initial_Points.TS;
% AI_initial = BLDATA.Initial_Points.AI;
% GH_initial = BLDATA.Initial_Points.GH;
% HU_initial = BLDATA.Initial_Points.HU;
% EL_initial = BLDATA.Initial_Points.EL;
% EM_initial = BLDATA.Initial_Points.EM;
% CP_initial = BLDATA.Initial_Points.CP;
% US_initial = BLDATA.Initial_Points.US;
% RS_initial = BLDATA.Initial_Points.RS;
%
% % define the configurations of the landmarks
% IJ = IJ_initial;
% PX = PX_initial;
% T8 = T8_initial;
% C7 = C7_initial;
% SC = SC_initial;
% AC = Rc*Rc_initial'*(AC_initial - SC_initial) + SC_initial;
% AA = Rs*Rs_initial'*(AA_initial - AC_initial) + AC;
% TS = Rs*Rs_initial'*(TS_initial - AC_initial) + AC;
% AI = Rs*Rs_initial'*(AI_initial - AC_initial) + AC;
% GH = Rs*Rs_initial'*(GH_initial - AC_initial) + AC;
% HU = Rh*Rh_initial'*(HU_initial - GH_initial) + GH;
% EL = Rh*Rh_initial'*(EL_initial - GH_initial) + GH;
% EM = Rh*Rh_initial'*(EM_initial - GH_initial) + GH;
% US = Ru*Ru_initial'*(US_initial - HU_initial) + HU;
% CP = Rh*Rh_initial'*(CP_initial - GH_initial) + GH;
% RS = Rr*Rr_initial'*(RS_initial - CP_initial) + CP;
%
% % Build the bone wire frames for plotting purposes
% Reconstructed_WF_Thorax = [IJ, PX, T8, C7, IJ];
% Reconstructed_WF_Clavicula = [SC, AC];
% Reconstructed_WF_Scapula = [AC, AA, TS, AI, GH, AC];
% Reconstructed_WF_Humerus = [GH, HU, EL, EM];
% Reconstructed_WF_Ulna = [CP, HU, EM, US];
% Reconstructed_WF_Radius = [CP, RS];
% %
%--------------------------------------------------------------------------
% define the wireframe of the measured motion
%--------------------------------------------------------------------------
Measured_WF_Thorax = [SSDATA.Measured_Kinematics.IJ(:,i),...
SSDATA.Measured_Kinematics.PX(:,i),...
SSDATA.Measured_Kinematics.T8(:,i),...
SSDATA.Measured_Kinematics.C7(:,i),...
SSDATA.Measured_Kinematics.IJ(:,i)];
Measured_WF_Clavicula = [SSDATA.Measured_Kinematics.SC(:,i),...
SSDATA.Measured_Kinematics.AC(:,i)];
Measured_WF_Scapula = [SSDATA.Measured_Kinematics.AC(:,i),...
SSDATA.Measured_Kinematics.AA(:,i),...
SSDATA.Measured_Kinematics.TS(:,i),...
SSDATA.Measured_Kinematics.AI(:,i),...
SSDATA.Measured_Kinematics.GH(:,i),...
SSDATA.Measured_Kinematics.AC(:,i)];
Measured_WF_Humerus = [SSDATA.Measured_Kinematics.GH(:,i),...
SSDATA.Measured_Kinematics.HU(:,i),...
SSDATA.Measured_Kinematics.EL(:,i),...
SSDATA.Measured_Kinematics.EM(:,i)];
Measured_WF_Ulna = [SSDATA.Measured_Kinematics.CP(:,i),...
SSDATA.Measured_Kinematics.HU(:,i),...
SSDATA.Measured_Kinematics.EM(:,i),...
SSDATA.Measured_Kinematics.US(:,i)];
Measured_WF_Radius = [SSDATA.Measured_Kinematics.CP(:,i),...
SSDATA.Measured_Kinematics.RS(:,i)];
%--------------------------------------------------------------------------
% plot the two wireframes together
%--------------------------------------------------------------------------
% plot reconstructed wireframes
% plot3(Reconstructed_WF_Thorax(1,:),...
% Reconstructed_WF_Thorax(2,:),...
% Reconstructed_WF_Thorax(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', 'o',...
% 'markerfacecolor', 'blue',...
% 'markeredgecolor', 'blue');
% plot3(Reconstructed_WF_Clavicula(1,:),...
% Reconstructed_WF_Clavicula(2,:),...
% Reconstructed_WF_Clavicula(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', 'o',...
% 'markerfacecolor', 'blue',...
% 'markeredgecolor', 'blue');
% plot3(Reconstructed_WF_Scapula(1,:),...
% Reconstructed_WF_Scapula(2,:),...
% Reconstructed_WF_Scapula(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', 'o',...
% 'markerfacecolor', 'blue',...
% 'markeredgecolor', 'blue');
% plot3(Reconstructed_WF_Humerus(1,:),...
% Reconstructed_WF_Humerus(2,:),...
% Reconstructed_WF_Humerus(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', 'o',...
% 'markerfacecolor', 'blue',...
% 'markeredgecolor', 'blue');
% plot3(Reconstructed_WF_Ulna(1,:),...
% Reconstructed_WF_Ulna(2,:),...
% Reconstructed_WF_Ulna(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', 'o',...
% 'markerfacecolor', 'blue',...
% 'markeredgecolor', 'blue');
% plot3(Reconstructed_WF_Radius(1,:),...
% Reconstructed_WF_Radius(2,:),...
% Reconstructed_WF_Radius(3,:),...
% 'color', 'black',...
% 'linewidth', 2,...
% 'marker', 'o',...
% 'markerfacecolor', 'blue',...
% 'markeredgecolor', 'blue');
%
% plot measured wireframes
plot3(Measured_WF_Thorax(1,:),...
Measured_WF_Thorax(2,:),...
Measured_WF_Thorax(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', '*',...
'markerfacecolor', 'green',...
'markeredgecolor', 'green');
plot3(Measured_WF_Clavicula(1,:),...
Measured_WF_Clavicula(2,:),...
Measured_WF_Clavicula(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', '*',...
'markerfacecolor', 'green',...
'markeredgecolor', 'green');
plot3(Measured_WF_Scapula(1,:),...
Measured_WF_Scapula(2,:),...
Measured_WF_Scapula(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', '*',...
'markerfacecolor', 'green',...
'markeredgecolor', 'green');
plot3(Measured_WF_Humerus(1,:),...
Measured_WF_Humerus(2,:),...
Measured_WF_Humerus(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', '*',...
'markerfacecolor', 'green',...
'markeredgecolor', 'green');
plot3(Measured_WF_Ulna(1,:),...
Measured_WF_Ulna(2,:),...
Measured_WF_Ulna(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', '*',...
'markerfacecolor', 'green',...
'markeredgecolor', 'green');
plot3(Measured_WF_Radius(1,:),...
Measured_WF_Radius(2,:),...
Measured_WF_Radius(3,:),...
'color', 'black',...
'linewidth', 2,...
'marker', '*',...
'markerfacecolor', 'green',...
'markeredgecolor', 'green');
% show extra information about the contact
str1 = ['time = ', num2str(time(i)), ' [s]']; % show the abduction angle on the plot
str1_prop = annotation('textbox',[0.01 0.48 0.15 0.02],'String',str1,'FitBoxToText','off','BackgroundColor','w');
str1_prop.FontSize = 16;
%drawnow;
pause(h);
F(ii) = getframe(gca); % save the frame
if i < 1 + floor((max_frame-1)/StepSize)*StepSize % length(SSDATA.Measured_Kinematics.IJ)
cla
end
end
%}
myvideo = VideoWriter('recontructed_motion','Uncompressed AVI'); % create an avi file to save the F
myVideo.Quality = 100;
%myVideo.FrameRate = 50;
open(myvideo);
writeVideo(myvideo,F); % write the resulted F into the created video
close(myvideo);
% % Clear some variables
% clear SC AC AA TS AI GH HU EL EM US RS CP Rmat Rc Rs Rh Ru Rr;
%
% % When Motion is over, reset the current BLDATA to initial
% % Get the Current Rotation Matrices
% Rmat = MAIN_TOOL_geometry_functions('Build Rotation Matrices From Euler Angles', KEDATA.Joint_Angle_Evolution(:,1), BLDATA);
%
% % Update the current configuration
% BLDATA = MAIN_TOOL_geometry_functions(...
% 'Update Current Bony Landmark Data from Joint Rotation Matrices', Rmat(:,1:3), Rmat(:,4:6), Rmat(:,7:9), Rmat(:,10:12), Rmat(:,13:15), BLDATA);
%
% clear Rmat i;
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