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plot_soft_wing.m
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function [] = plot_soft_wing(wingtype, exp_value, sel_speed, sel_inflation, div, chord, kin_viscosity, sensor_orientation)
% plots data relative to soft wing type. All inflations displayed.
%% Renaming variables for typing reasons
drag_dir = sensor_orientation.drag_dir;
lift_dir = sensor_orientation.lift_dir;
lat_dir = sensor_orientation.lat_dir;
%% Plot choice to increase performance
CL_CD_prompt = "CL / CD plot: yes (1) or no (0)\n";
CL_prompt = "CL plot: yes (1) or no (0)\n";
CD_prompt = "CD plot: yes (1) or no (0)\n";
plot_type_prompt = "please type in <title> or <no_title>\n";
CL_CD_plot = (input(CL_CD_prompt, "s"));
CL_plot = (input(CL_prompt, "s"));
CD_plot = (input(CD_prompt, "s"));
plot_type = (input(plot_type_prompt, "s"));
if CL_CD_plot == ""
CL_CD_plot = 0; % enter default value here
end
if CL_plot == ""
CL_plot = 1; % enter default value here
end
if CD_plot == ""
CD_plot = 1; % enter default value here
end
if plot_type == ""
plot_type = 'title'; % enter default value here
end
%% Saving folder creation
plot_choice_vec = [CL_CD_plot; CL_plot; CD_plot];
create_fold_save_pic(wingtype, plot_choice_vec, plot_type);
%% Plotting
if CL_CD_plot == 1
%folder_checking(plot_type, 'CL_CD');
plot_CLCD(wingtype, sel_inflation, exp_value, [], sel_speed, chord, kin_viscosity, plot_type, 'png');
end
if CL_plot == 1
%folder_checking(plot_type, 'CL');
plot_CL(wingtype, sel_inflation, exp_value, [], sel_speed, div, chord, kin_viscosity, lift_dir, plot_type, 'png');
end
if CD_plot == 1
%folder_checking(plot_type, 'CD');
plot_CD(wingtype, sel_inflation, exp_value, [], sel_speed, div, chord, kin_viscosity, drag_dir, plot_type, 'png');
end
%% CL / CD: presenting one plot per selected speed and all inflations, against AoA
% threshold = 3000;
%
% for j = 1:length(sel_speed) % looping over flow speed to create fixed-speed plots
%
% [status, msg, msgID] = mkdir('../pic/CL_over_CD_plot/'); % saving-folder creation
% Re = sel_speed(j) * chord / kin_viscosity; % Reynolds number
% disp(sel_speed(j))
%
% clear k1 k2 k3 k4 k5
%
% figure('Position', [200, 200, 1000, 1000])
%
% title(['CL / CD plot # ', num2str(j), '; Flow Speed: ', num2str(sel_speed(j))],'fontweight', 'bold', 'fontsize', 24)
% legend('Location','north','Orientation','horizontal','fontsize', 16)
% hold on
% grid on
% xlabel('AoA [deg]','fontweight','bold','fontsize', 30);
% ylabel('CL / CD [ ]','fontweight','bold','fontsize', 30);
% xlim([-10 35])
%
% for k = 1:length(exp_value.f_avg)
%
% if (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(1))
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) > threshold
% continue
% end
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) < - threshold
% continue
% end
%
% if exist('k1','var') == 0
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'or', 'DisplayName', 'neutral', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% else
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'or', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% x_vec = [exp_value.aoa(k1), exp_value.aoa(k)];
% y_vec = [exp_value.f_avg(k1, 2) / exp_value.f_avg(k1, 1), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)];
% plot(x_vec, y_vec, '--r', 'HandleVisibility','off')
% end
% k1 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(2))
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) > threshold
% continue
% end
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) < - threshold
% continue
% end
% if exist('k2','var') == 0
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'ok', 'DisplayName', 'inf. = 60 mL', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
%
% else
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'ok', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% x_vec = [exp_value.aoa(k2), exp_value.aoa(k)];
% y_vec = [exp_value.f_avg(k2, 2) / exp_value.f_avg(k2, 1), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)];
% plot(x_vec, y_vec, '--k', 'HandleVisibility','off')
% end
% k2 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(3))
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) > threshold
% continue
% end
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) < - threshold
% continue
% end
% if exist('k3','var') == 0
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'om', 'DisplayName', 'inf. = 90 mL', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% else
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'om', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% x_vec = [exp_value.aoa(k3), exp_value.aoa(k)];
% y_vec = [exp_value.f_avg(k3, 2) / exp_value.f_avg(k3, 1), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)];
% plot(x_vec, y_vec, '--m', 'HandleVisibility','off')
% end
% k3 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(4))
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) > threshold
% continue
% end
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) < -threshold
% continue
% end
% if exist('k4','var') == 0
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'ob', 'DisplayName', 'inf. = 120 mL', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% else
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'ob', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% x_vec = [exp_value.aoa(k4), exp_value.aoa(k)];
% y_vec = [exp_value.f_avg(k4, 2) / exp_value.f_avg(k4, 1), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)];
% plot(x_vec, y_vec, '--b', 'HandleVisibility','off')
% end
% k4 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(5))
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) > threshold
% continue
% end
% if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) < - threshold
% continue
% end
% if exist('k5','var') == 0
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'og', 'DisplayName', 'inf. = 30 mL', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% else
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'og', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'green')
% x_vec = [exp_value.aoa(k5), exp_value.aoa(k)];
% y_vec = [exp_value.f_avg(k5, 2) / exp_value.f_avg(k5, 1), exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)];
% plot(x_vec, y_vec, '--g', 'HandleVisibility','off')
% end
% k5 = k;
% end
% end
%
% str_annotation = sprintf('Re = %.2e', Re);
% annotation('textbox', [0.696 0.77 0.1 0.1], 'String', str_annotation, 'BackgroundColor','white','LineStyle','-','Fontsize', 16, 'Interpreter','latex' ) % printing Re on plots
% hold off
% saveas(gcf, ['../pic/CL_over_CD_plot/', 'CL_over_CD_plot_#', num2str(j), 'flow_speed_0_', num2str(100 * sel_speed(j))], 'png'); % saving plots in desired folder
%
% % checking and printing whether chosen path is accessible
%
% if ~isfolder('..')
% error('Corrupt or very very old file system, missing .. directory entry')
% elseif ~isfolder('../pic')
% error('No folder ../data_analysis')
% elseif ~isfolder('../pic/CL_over_CD_plot')
% error('No folder ../pic/CL_over_CD_plot')
% else
% fprintf('folder path ../pic/CL_plot/ is okay \n')
% end
%
% end
% % %% CD / CL: presenting one plot per selected speed and all inflations, against AoA
% %
% % for j = 1:length(sel_speed) % looping over flow speed to create fixed-speed plots
% %
% % [status, msg, msgID] = mkdir('./pic/CD_over_CL_plot/'); % saving-folder creation
% % Re = sel_speed(j) * chord / kin_viscosity; % Reynolds number
% disp(sel_speed(j))
% %
% % clear k1 k2 k3 k4 k5
% %
% % figure('Position', [200, 200, 1000, 1000])
% %
% % title(['CD / CL plot # ', num2str(j), '; Flow Speed: ', num2str(sel_speed(j))],'fontweight', 'bold', 'fontsize', 24)
% % legend('Location','north','Orientation','horizontal','fontsize', 16)
% % hold on
% % grid on
% % xlabel('AoA [deg]','fontweight','bold','fontsize', 30);
% % ylabel('CD / CL [ ]','fontweight','bold','fontsize', 30);
% % xlim([-10 35])
% % ylim([0 +1])
% %
% % for k = 1:length(exp_value.f_avg)
% %
% % if (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(1))
% % if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) > threshold
% % continue
% % end
% % if (exp_value.f_avg(k, 2) / exp_value.f_avg(k, 1)) < - threshold
% % continue
% % end
% %
% % if exist('k1','var') == 0
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 1) / exp_value.f_std(k, 2), 'or', 'DisplayName', 'neutral', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% % else
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 1) / exp_value.f_std(k, 2), 'or', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% % x_vec = [exp_value.aoa(k1), exp_value.aoa(k)];
% % y_vec = [exp_value.f_avg(k1, 1) / exp_value.f_avg(k1, 2), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)];
% % plot(x_vec, y_vec, '--r', 'HandleVisibility','off')
% % end
% % k1 = k;
% % elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(2))
% % if (exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)) > threshold
% % continue
% % end
% % if (exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)) < - threshold
% % continue
% % end
% % if exist('k2','var') == 0
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 1) / exp_value.f_std(k, 2), 'ok', 'DisplayName', 'inf. = 60 mL', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% %
% % else
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 2) / exp_value.f_std(k, 1), 'ok', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% % x_vec = [exp_value.aoa(k2), exp_value.aoa(k)];
% % y_vec = [exp_value.f_avg(k2, 1) / exp_value.f_avg(k2, 2), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)];
% % plot(x_vec, y_vec, '--k', 'HandleVisibility','off')
% % end
% % k2 = k;
% % elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(3))
% % if (exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)) > threshold
% % continue
% % end
% % if (exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)) < - threshold
% % continue
% % end
% % if exist('k3','var') == 0
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 1) / exp_value.f_std(k, 2), 'om', 'DisplayName', 'inf. = 90 mL', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% % else
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 1) / exp_value.f_std(k, 2), 'om', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% % x_vec = [exp_value.aoa(k3), exp_value.aoa(k)];
% % y_vec = [exp_value.f_avg(k3, 1) / exp_value.f_avg(k3, 2), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)];
% % plot(x_vec, y_vec, '--m', 'HandleVisibility','off')
% % end
% % k3 = k;
% % elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(4))
% % if (exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)) > threshold
% % continue
% % end
% % if (exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)) < -threshold
% % continue
% % end
% % if exist('k4','var') == 0
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 1) / exp_value.f_std(k, 2), 'ob', 'DisplayName', 'inf. = 120 mL', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% % else
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 1) / exp_value.f_std(k, 2), 'ob', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% % x_vec = [exp_value.aoa(k4), exp_value.aoa(k)];
% % y_vec = [exp_value.f_avg(k4, 1) / exp_value.f_avg(k4, 2), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)];
% % plot(x_vec, y_vec, '--b', 'HandleVisibility','off')
% % end
% % k4 = k;
% % elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(5))
% % if (exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)) > threshold
% % continue
% % end
% % if (exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)) < - threshold
% % continue
% % end
% % if exist('k5','var') == 0
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 1) / exp_value.f_std(k, 2), 'og', 'DisplayName', 'inf. = 30 mL', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% % else
% % errorbar(exp_value.aoa(k), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2), exp_value.f_std(k, 1) / exp_value.f_std(k, 2), 'og', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'green')
% % x_vec = [exp_value.aoa(k5), exp_value.aoa(k)];
% % y_vec = [exp_value.f_avg(k5, 1) / exp_value.f_avg(k5, 2), exp_value.f_avg(k, 1) / exp_value.f_avg(k, 2)];
% % plot(x_vec, y_vec, '--g', 'HandleVisibility','off')
% % end
% % k5 = k;
% % end
% % end
% %
% % str_annotation = sprintf('Re = %.2e', Re);
% % annotation('textbox', [0.696 0.77 0.1 0.1], 'String', str_annotation, 'BackgroundColor','white','LineStyle','-','Fontsize', 16, 'Interpreter','latex' ) % printing Re on plots
% % hold off
% % saveas(gcf, ['./pic/CD_over_CL_plot/', 'CD_over_CL_plot_#', num2str(j), 'flow_speed_0_', num2str(100 * sel_speed(j))], 'png'); % saving plots in desired folder
% %
% % % checking and printing whether chosen path is accessible
% %
% % if ~isfolder('..')
% % error('Corrupt or very very old file system, missing .. directory entry')
% % elseif ~isfolder('../pic')
% % error('No folder ../data_analysis')
% % elseif ~isfolder('../pic/CL_over_CD_plot')
% % error('No folder ../pic/CL_over_CD_plot')
% % else
% % fprintf('folder path ../pic/CL_plot/ is okay \n')
% % end
% %
% % end
% %
% %% CL: presenting one plot per selected speed and all inflations, against AoA
%
% % [status, msg, msgID] = mkdir('./pic_notitle_paper/CL_plot/'); % saving-folder creation
% [status, msg, msgID] = mkdir('./pic/CL_plot/');
%
% for j = 1:length(sel_speed) % looping over flow speed to create fixed-speed plots
%
% Re = sel_speed(j) * chord / kin_viscosity; % Reynolds number
% disp(sel_speed(j))
%
% clear k1 k2 k3 k4 k5
%
% figure('Position', [200, 200, 1000, 1000])
%
% title(['CL plot # ', num2str(j), '; Flow Speed: ', num2str(sel_speed(j))],'fontweight','bold','fontsize', 24)
% legend('Location','north','Orientation','horizontal','fontsize', 22, 'LineWidth', 2)
% hold on
% grid on
% xlabel('AoA [deg]','fontweight','bold','fontsize', 30);
% ylabel('CL [ ]','fontweight','bold','fontsize', 30);
% ax = gca;
% ax.XAxis.LineWidth = 2;
% ax.YAxis.LineWidth = 2;
% xlim([-10 30])
% ylim([-0.2 2])
%
% for k = 1:length(exp_value.f_avg)
%
% if (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(1))
% if exist('k1','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(1, j)), exp_value.f_std(k, lift_dir) / div(1, j), 'or', 'DisplayName', 'neutral', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(1, j)), exp_value.f_std(k, lift_dir) / div(1, j), 'or', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% x_vec = [exp_value.aoa(k1), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k1, lift_dir) / div(1, j)), (-exp_value.f_avg(k, lift_dir) / div(1, j))];
% plot(x_vec, y_vec, '--r', 'HandleVisibility','off')
% end
% k1 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(2))
% if exist('k2','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(2, j)), exp_value.f_std(k, lift_dir) / div(2, j), 'ok', 'DisplayName', 'inf. = 30 mL', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(2, j)), exp_value.f_std(k, lift_dir) / div(2, j), 'ok', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% x_vec = [exp_value.aoa(k2), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k2, lift_dir) / div(2, j)), (-exp_value.f_avg(k, lift_dir) / div(2, j))];
% plot(x_vec, y_vec, '--k', 'HandleVisibility','off')
% end
% k2 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(3))
% if exist('k3','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(3, j)), exp_value.f_std(k, lift_dir) / div(3, j), 'om', 'DisplayName', 'inf. = 60 mL', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(3, j)), exp_value.f_std(k, lift_dir) / div(3, j), 'om', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% x_vec = [exp_value.aoa(k3), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k3, lift_dir) / div(3, j)), (-exp_value.f_avg(k, lift_dir) / div(3, j))];
% plot(x_vec, y_vec, '--m', 'HandleVisibility','off')
% end
% k3 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(4))
% if exist('k4','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(4, j)), exp_value.f_std(k, lift_dir) / div(4, j), 'ob', 'DisplayName', 'inf. = 90 mL', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(4, j)), exp_value.f_std(k, lift_dir) / div(4, j), 'ob', 'HandleVisibility','off','CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% x_vec = [exp_value.aoa(k4), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k4, lift_dir) / div(4, j)), (-exp_value.f_avg(k, lift_dir) / div(4, j))];
% plot(x_vec, y_vec, '--b', 'HandleVisibility','off')
% end
% k4 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(5))
% if exist('k5','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(5, j)), exp_value.f_std(k, lift_dir) / div(5, j), 'og', 'DisplayName', 'inf. = 120 mL', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, lift_dir) / div(5, j)), exp_value.f_std(k, lift_dir) / div(5, j), 'og', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% x_vec = [exp_value.aoa(k5), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k5, lift_dir) / div(5, j)), (-exp_value.f_avg(k, lift_dir) / div(5, j))];
% plot(x_vec, y_vec, '--g', 'HandleVisibility','off')
% end
% k5 = k;
% end
% end
%
% %str_annotation = sprintf('Re = %.2e', Re);
% %annotation('textbox', [0.696 0.77 0.1 0.1], 'String', str_annotation, ...
% % 'BackgroundColor','white','LineStyle','-','Fontsize', 16, 'Interpreter','latex') % printing Re on plots
% hold off
% %saveas(gcf, ['./pic_notitle_paper/CL_plot/', 'CL_plot_#', num2str(j), '_flow_speed_0_', num2str(100 * sel_speed(j))], 'png'); % saving plots in desired folder
% saveas(gcf, ['./pic/CL_plot/', 'CL_plot_#', num2str(j), '_flow_speed_0_', num2str(100 * sel_speed(j))], 'png'); % saving plots in desired folder
%
% % checking and printing whether chosen path is accessible
%
% % if ~isfolder('..')
% % error('Corrupt or very very old file system, missing .. directory entry')
% % elseif ~isfolder('../pic')
% % error('No folder ../data_analysis')
% % elseif ~isfolder('../pic/CL_plot')
% % error('No folder ../pic/CL_plot')
% % else
% % fprintf('folder path ../pic/CL_plot/ is okay \n')
% % end
%
% end
%
%
% %% CD: presenting one plot per selected speed and all inflations, against AoA
%
% % [status, msg, msgID] = mkdir('../pic_notitle_paper/CD_plot/'); % saving-folder creation
% [status, msg, msgID] = mkdir('./pic/CD_plot/');
%
% for j = 1:length(sel_speed) % looping over flow speed to create fixed-speed plots
%
% Re = sel_speed(j) * chord / kin_viscosity; % Reynolds number
% disp(sel_speed(j))
% clear k1 k2 k3 k4 k5
%
% figure('Position', [200, 200, 1000, 1000])
%
% title(['CD plot # ', num2str(j), '; Flow Speed: ', num2str(sel_speed(j))], 'fontweight','bold','fontsize', 24)
% legend('Location','north','Orientation','horizontal','fontsize', 22, 'LineWidth', 2)
% hold on
% grid on
% xlabel('AoA [deg]','fontweight','bold','fontsize', 30);
% ylabel('CD [ ]','fontweight','bold','fontsize', 30);
% xlim([-10 30])
% ylim([-.1 1.3])
% ax = gca;
% ax.XAxis.LineWidth = 2;
% ax.YAxis.LineWidth = 2;
%
% for k = 1:length(exp_value.f_avg)
%
% if (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(1))
% if exist('k1','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(1, j)), exp_value.f_std(k, drag_dir) / div(1, j), 'or', 'DisplayName', 'neutral', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(1, j)), exp_value.f_std(k, drag_dir) / div(1, j), 'or', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% x_vec = [exp_value.aoa(k1), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k1, drag_dir) / div(1, j)), (-exp_value.f_avg(k, drag_dir) / div(1, j))];
% plot(x_vec, y_vec, '--r', 'HandleVisibility','off')
% end
% k1 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(2))
% if exist('k2','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(2, j)), exp_value.f_std(k, drag_dir) / div(2, j), 'ok', 'DisplayName', 'inf. = 30 mL', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(2, j)), exp_value.f_std(k, drag_dir) / div(2, j), 'ok', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% x_vec = [exp_value.aoa(k2), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k2, drag_dir) / div(2, j)), (-exp_value.f_avg(k, drag_dir) / div(2, j))];
% plot(x_vec, y_vec, '--k', 'HandleVisibility','off')
% end
% k2 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(3))
% if exist('k3','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(3, j)), exp_value.f_std(k, drag_dir) / div(3, j), 'om', 'DisplayName', 'inf. = 60 mL', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(3, j)), exp_value.f_std(k, drag_dir) / div(3, j), 'om', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% x_vec = [exp_value.aoa(k3), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k3, drag_dir) / div(3, j)), (-exp_value.f_avg(k, drag_dir) / div(3, j))];
% plot(x_vec, y_vec, '--m', 'HandleVisibility','off')
% end
% k3 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(4))
% if exist('k4','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(4, j)), exp_value.f_std(k, drag_dir) / div(4, j), 'ob', 'DisplayName', 'inf. = 90 mL', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(4, j)), exp_value.f_std(k, drag_dir) / div(4, j), 'ob', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% x_vec = [exp_value.aoa(k4), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k4, drag_dir) / div(4, j)), (-exp_value.f_avg(k, drag_dir) / div(4, j))];
% plot(x_vec, y_vec, '--b', 'HandleVisibility','off')
% end
% k4 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(5))
% if exist('k5','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(5, j)), exp_value.f_std(k, drag_dir) / div(5, j), 'og', 'DisplayName', 'inf. = 120 mL', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, drag_dir) / div(5, j)), exp_value.f_std(k, drag_dir) / div(5, j), 'og', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% x_vec = [exp_value.aoa(k5), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k5, drag_dir) / div(5, j)), (-exp_value.f_avg(k, drag_dir) / div(5, j))];
% plot(x_vec, y_vec, '--g', 'HandleVisibility','off')
% end
% k5 = k;
% end
% end
%
% hold off
% %saveas(gcf, ['./pic_notitle_paper/CD_plot/','/CD_plot_#', num2str(j), '_flow_speed_0_', num2str(100 * sel_speed(j))], 'png'); % saving plots in desired folder
% saveas(gcf, ['./pic/CD_plot/','/CD_plot_#', num2str(j), '_flow_speed_0_', num2str(100 * sel_speed(j))], 'png'); % saving plots in desired folder
% checking and printing whether chosen path is accessible
% if ~isfolder('..')
% error('Corrupt or very very old file system, missing .. directory entry')
% elseif ~isfolder('../pic')
% error('No folder ../data_analysis')
% elseif ~isfolder('../pic/CD_plot')
% error('No folder ../pic/CD_plot')
% else
% fprintf('folder path ../pic/CD_plot/ is okay \n')
% end
%end
%
% %% CM: presenting one plot per selected speed and all inflations, against AoA
%
% for j = 1:length(sel_speed)
% dyn_pressure = 0.5 * rho * sel_speed(j) ^ 2; % calculation of dynamic pressure
%
% figure
% title(['CM pitch plot # ', num2str(j), '; Flow Speed: ', num2str(sel_speed(j))])
% hold on
% grid on
% xlabel('AoA [deg]')
% ylabel('CL / CD')
% xlim([-10 35])
% ylim([-10 10])
%
% for k = 1:length(MyFolderInfo)
% if (torque.vel(k) == sel_speed(j)) && (torque.inflation(k) == sel_inflation(1))
% scatter(torque.aoa(k), torque.avg(k, 2), 'r', 'filled');
% elseif (torque.vel(k) == sel_speed(j)) && (torque.inflation(k) == sel_inflation(2))
% scatter(torque.aoa(k), torque.avg(k, 2), 'o', 'filled');
% elseif (torque.vel(k) == sel_speed(j)) && (torque.inflation(k) == sel_inflation(3))
% scatter(torque.aoa(k), torque.avg(k, 2), 'y', 'filled');
% elseif (torque.vel(k) == sel_speed(j)) && (torque.inflation(k) == sel_inflation(4))
% scatter(torque.aoa(k), torque.avg(k, 2), 'b', 'filled');
% elseif (torque.vel(k) == sel_speed(j)) && (torque.inflation(k) == sel_inflation(5))
% scatter(torque.aoa(k), torque.avg(k, 2), 'k', 'filled');
% end
% end
%
% legend({'inf. = 0 mL', 'inf. = 60 mL', 'inf. = 90 mL', 'inf. = 120 mL', 'inf. = 30 mL'}, ...
% 'Location','northwest','Orientation','horizontal')
% hold off
%
% end
%
%
% %% Lift: presenting one plot per selected speed and all inflations, against AoA
% [status, msg, msgID] = mkdir('./Force_pic/Lift/'); % saving-folder creation
%
% for j = 1:length(sel_speed) % looping over flow speed to create fixed-speed plots
%
%
% Re = sel_speed(j) * chord / kin_viscosity; % Reynolds number
%
% clear k1 k2 k3 k4 k5
%
% figure('Position', [200, 200, 1000, 1000])
%
% title(['Lift plot # ', num2str(j), '; Flow Speed: ', num2str(sel_speed(j))],'fontweight','bold','fontsize', 24)
% legend('Location','north','Orientation','horizontal','fontsize', 22, 'LineWidth', 2)
% hold on
% grid on
% xlabel('AoA [deg]','fontweight','bold','fontsize', 30);
% ylabel('Lift [N]','fontweight','bold','fontsize', 30);
% ax = gca;
% ax.XAxis.LineWidth = 2;
% ax.YAxis.LineWidth = 2;
% xlim([-10 35])
% % ylim([-0.75 1.75])
%
% for k = 1:length(exp_value.f_avg)
%
% if (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(1))
% if exist('k1','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 2)), exp_value.f_std(k, lift_dir), 'or', 'DisplayName', 'neutral', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% else
% errorbar(exp_value.aoa(k), -exp_value.f_avg(k, 2), exp_value.f_std(k, lift_dir), 'or', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% x_vec = [exp_value.aoa(k1), exp_value.aoa(k)];
% y_vec = [-exp_value.f_avg(k1, 2) , (-exp_value.f_avg(k, 2))];
% plot(x_vec, y_vec, '--r', 'HandleVisibility','off')
% end
% k1 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(2))
% if exist('k2','var') == 0
% errorbar(exp_value.aoa(k), (exp_value.f_avg(k, 2)), exp_value.f_std(k, lift_dir), 'ok', 'DisplayName', 'inf. = 60 mL', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% else
% errorbar(exp_value.aoa(k), exp_value.f_avg(k, 2), exp_value.f_std(k, lift_dir), 'ok', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% x_vec = [exp_value.aoa(k2), exp_value.aoa(k)];
% y_vec = [(exp_value.f_avg(k2, 2)), (exp_value.f_avg(k, 2))];
% plot(x_vec, y_vec, '--k', 'HandleVisibility','off')
% end
% k2 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(3))
% if exist('k3','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 2)), exp_value.f_std(k, lift_dir), 'om', 'DisplayName', 'inf. = 90 mL', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 2)), exp_value.f_std(k, lift_dir), 'om', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% x_vec = [exp_value.aoa(k3), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k3, 2)), (-exp_value.f_avg(k, 2))];
% plot(x_vec, y_vec, '--m', 'HandleVisibility','off')
% end
% k3 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(4))
% if exist('k4','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 2)), exp_value.f_std(k, lift_dir), 'ob', 'DisplayName', 'inf. = 120 mL', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 2)), exp_value.f_std(k, lift_dir), 'ob', 'HandleVisibility','off','CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% x_vec = [exp_value.aoa(k4), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k4, 2)), (-exp_value.f_avg(k, 2))];
% plot(x_vec, y_vec, '--b', 'HandleVisibility','off')
% end
% k4 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(5))
% if exist('k5','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 2)), exp_value.f_std(k, lift_dir), 'og', 'DisplayName', 'inf. = 30 mL', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 2)), exp_value.f_std(k, lift_dir), 'og', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% x_vec = [exp_value.aoa(k5), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k5, 2)), (-exp_value.f_avg(k, 2))];
% plot(x_vec, y_vec, '--g', 'HandleVisibility','off')
% end
% k5 = k;
% end
% end
%
% hold off
% saveas(gcf, ['./Force_pic/Lift/', 'Lift_#', num2str(j), '_flow_speed_0_', num2str(100 * sel_speed(j))], 'png'); % saving plots in desired folder
%
% end
%
% %% Drag: presenting one plot per selected speed and all inflations, against AoA
% [status, msg, msgID] = mkdir('./Force_pic/Drag/'); % saving-folder creation
%
% for j = 1:length(sel_speed) % looping over flow speed to create fixed-speed plots
%
%
% Re = sel_speed(j) * chord / kin_viscosity; % Reynolds number
%
% clear k1 k2 k3 k4 k5
%
% figure('Position', [200, 200, 1000, 1000])
%
% title(['Drag plot # ', num2str(j), '; Flow Speed: ', num2str(sel_speed(j))],'fontweight','bold','fontsize', 24)
% legend('Location','north','Orientation','horizontal','fontsize', 22, 'LineWidth', 2)
% hold on
% grid on
% xlabel('AoA [deg]','fontweight','bold','fontsize', 30);
% ylabel('Drag [N]','fontweight','bold','fontsize', 30);
% ax = gca;
% ax.XAxis.LineWidth = 2;
% ax.YAxis.LineWidth = 2;
% xlim([-10 35])
% ylim([-0.25 8])
%
% for k = 1:length(exp_value.f_avg)
%
% if (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(1))
% if exist('k1','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)), exp_value.f_std(k, 1), 'or', 'DisplayName', 'neutral', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)) , exp_value.f_std(k, 1), 'or', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% x_vec = [exp_value.aoa(k1), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k1, 1)) , (-exp_value.f_avg(k, 1)) ];
% plot(x_vec, y_vec, '--r', 'HandleVisibility','off')
% end
% k1 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(2))
% if exist('k2','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)), exp_value.f_std(k, 1), 'ok', 'DisplayName', 'inf. = 60 mL', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)), exp_value.f_std(k, 1), 'ok', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% x_vec = [exp_value.aoa(k2), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k2, 1)), (-exp_value.f_avg(k, 1))];
% plot(x_vec, y_vec, '--k', 'HandleVisibility','off')
% end
% k2 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(3))
% if exist('k3','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)), exp_value.f_std(k, 1), 'om', 'DisplayName', 'inf. = 90 mL', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)), exp_value.f_std(k, 1), 'om', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% x_vec = [exp_value.aoa(k3), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k3, 1)), (-exp_value.f_avg(k, 1))];
% plot(x_vec, y_vec, '--m', 'HandleVisibility','off')
% end
% k3 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(4))
% if exist('k4','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)), exp_value.f_std(k, 1), 'ob', 'DisplayName', 'inf. = 120 mL', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)), exp_value.f_std(k, 1), 'ob', 'HandleVisibility','off','CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% x_vec = [exp_value.aoa(k4), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k4, 1)), (-exp_value.f_avg(k, 1))];
% plot(x_vec, y_vec, '--b', 'HandleVisibility','off')
% end
% k4 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(5))
% if exist('k5','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)), exp_value.f_std(k, 1), 'og', 'DisplayName', 'inf. = 30 mL', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% else
% errorbar(exp_value.aoa(k), (-exp_value.f_avg(k, 1)), exp_value.f_std(k, 1), 'og', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% x_vec = [exp_value.aoa(k5), exp_value.aoa(k)];
% y_vec = [(-exp_value.f_avg(k5, 1)), (-exp_value.f_avg(k, 1))];
% plot(x_vec, y_vec, '--g', 'HandleVisibility','off')
% end
% k5 = k;
% end
% end
%
% hold off
% saveas(gcf, ['./Force_pic/Drag/', 'Drag_#', num2str(j), '_flow_speed_0_', num2str(100 * sel_speed(j))], 'png'); % saving plots in desired folder
%
% end
%
% %% Torque: z direction
% [status, msg, msgID] = mkdir('./Torque_pic/TorqueZ/'); % saving-folder creation
%
% for j = 1:length(sel_speed) % looping over flow speed to create fixed-speed plots
%
%
% Re = sel_speed(j) * chord / kin_viscosity; % Reynolds number
%
% clear k1 k2 k3 k4 k5
%
% figure('Position', [200, 200, 1000, 1000])
%
% title(['TorqueZ plot # ', num2str(j), '; Flow Speed: ', num2str(sel_speed(j))],'fontweight','bold','fontsize', 24)
% legend('Location','north','Orientation','horizontal','fontsize', 22, 'LineWidth', 2)
% hold on
% grid on
% xlabel('AoA [deg]','fontweight','bold','fontsize', 30);
% ylabel('TorqueZ [Nm]','fontweight','bold','fontsize', 30);
% ax = gca;
% ax.XAxis.LineWidth = 2;
% ax.YAxis.LineWidth = 2;
% xlim([-10 35])
% ylim([-1 1])
%
% for k = 1:length(exp_value.t_avg)
%
% if (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(1))
% if exist('k1','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)), exp_value.t_std(k, 3), 'or', 'DisplayName', 'neutral', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% else
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)) , exp_value.t_std(k, 3), 'or', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'r', 'LineWidth', 1, MarkerEdgeColor = 'red')
% x_vec = [exp_value.aoa(k1), exp_value.aoa(k)];
% y_vec = [(-exp_value.t_avg(k1, 3)) , (-exp_value.t_avg(k, 3)) ];
% plot(x_vec, y_vec, '--r', 'HandleVisibility','off')
% end
% k1 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(2))
% if exist('k2','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)), exp_value.t_std(k, 3), 'ok', 'DisplayName', 'inf. = 60 mL', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% else
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)), exp_value.t_std(k, 3), 'ok', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'k', 'LineWidth', 1, MarkerEdgeColor = 'black')
% x_vec = [exp_value.aoa(k2), exp_value.aoa(k)];
% y_vec = [(-exp_value.t_avg(k2, 3)), (-exp_value.t_avg(k, 3))];
% plot(x_vec, y_vec, '--k', 'HandleVisibility','off')
% end
% k2 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(3))
% if exist('k3','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)), exp_value.t_std(k, 3), 'om', 'DisplayName', 'inf. = 90 mL', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% else
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)), exp_value.t_std(k, 3), 'om', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'm', 'LineWidth', 1, MarkerEdgeColor = 'magenta')
% x_vec = [exp_value.aoa(k3), exp_value.aoa(k)];
% y_vec = [(-exp_value.t_avg(k3, 3)), (-exp_value.t_avg(k, 3))];
% plot(x_vec, y_vec, '--m', 'HandleVisibility','off')
% end
% k3 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(4))
% if exist('k4','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)), exp_value.t_std(k, 3), 'ob', 'DisplayName', 'inf. = 120 mL', 'CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% else
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)), exp_value.t_std(k, 3), 'ob', 'HandleVisibility','off','CapSize', 18, 'MarkerFaceColor', 'b', 'LineWidth', 1, MarkerEdgeColor = 'blue')
% x_vec = [exp_value.aoa(k4), exp_value.aoa(k)];
% y_vec = [(-exp_value.t_avg(k4, 3)), (-exp_value.t_avg(k, 3))];
% plot(x_vec, y_vec, '--b', 'HandleVisibility','off')
% end
% k4 = k;
% elseif (exp_value.vel(k) == sel_speed(j)) && (exp_value.inflation(k) == sel_inflation(5))
% if exist('k5','var') == 0
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)), exp_value.t_std(k, 3), 'og', 'DisplayName', 'inf. = 30 mL', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% else
% errorbar(exp_value.aoa(k), (-exp_value.t_avg(k, 3)), exp_value.t_std(k, 3), 'og', 'HandleVisibility','off', 'CapSize', 18, 'MarkerFaceColor', 'g', 'LineWidth', 1, MarkerEdgeColor = 'green')
% x_vec = [exp_value.aoa(k5), exp_value.aoa(k)];
% y_vec = [(-exp_value.t_avg(k5, 3)), (-exp_value.t_avg(k, 3))];
% plot(x_vec, y_vec, '--g', 'HandleVisibility','off')
% end
% k5 = k;
% end
% end
%
% hold off
% saveas(gcf, ['./Torque_pic/TorqueZ/', 'TorqueZ#', num2str(j), '_flow_speed_0_', num2str(100 * sel_speed(j))], 'png'); % saving plots in desired folder
%
% end
%% Plots closure
% close all