Dragon
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LAAP
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Dependents: combination combination
Revision 0:25d32fc1c12e, committed 2019-11-25
- Comitter:
- Glaxys_finest1
- Date:
- Mon Nov 25 10:51:06 2019 +0000
- Commit message:
- hello1
Changed in this revision
--- /dev/null Thu Jan 01 00:00:00 1970 +0000
+++ b/LAAP.cpp Mon Nov 25 10:51:06 2019 +0000
@@ -0,0 +1,1113 @@
+//
+// File: LAAP.cpp
+//
+// Code generated for Simulink model 'LAAP'.
+//
+// Model version : 1.2
+// Simulink Coder version : 9.1 (R2019a) 23-Nov-2018
+// C/C++ source code generated on : Mon Nov 18 17:57:49 2019
+//
+// Target selection: ert.tlc
+// Embedded hardware selection: ARM Compatible->ARM Cortex
+// Code generation objectives:
+// 1. Execution efficiency
+// 2. RAM efficiency
+// Validation result: Not run
+//
+#include "LAAP.h"
+
+// Model step function
+void LAAPModelClass::step()
+{
+ static const int8_T b[3] = { 0, 1, 0 };
+
+ static const real_T b_0[12] = { 0.0028, 0.003, 3.1623, 0.0012, 0.0012, 3.68,
+ 1.6056, 1.6056, 1.0, 0.153, 0.153, 0.1 };
+
+ static const int8_T c[3] = { 0, 1, 0 };
+
+ static const real_T a[16] = { 0.25, 0.25, 0.25, 0.25, 0.0, 2.193, 0.0, -2.193,
+ -2.193, 0.0, 2.193, 0.0, 4.2591, -4.2591, 4.2591, -4.2591 };
+
+ int32_T r1;
+ int32_T i;
+ real_T Fdes_idx_2;
+ real_T Fdes_idx_1;
+ real_T Fdes_idx_0;
+ real_T rtb_TmpSignalConversionAtSFun_0;
+ real_T rtb_TmpSignalConversionAtSFun_1;
+ int32_T R_tmp;
+ int32_T b_I_tmp;
+ int32_T b_I_tmp_0;
+
+ // Outputs for Atomic SubSystem: '<Root>/Adaptive large angle controller'
+ // Delay: '<S1>/Delay1'
+ memcpy(&rtDW.Delay1[0], &rtDW.psy[0], 12U * sizeof(real_T));
+
+ // Outputs for Atomic SubSystem: '<S1>/quadcopter_dynamics_prediction'
+ // MATLAB Function: '<S3>/Euler equations of motion1 ' incorporates:
+ // Constant: '<S1>/mass '
+ // Delay: '<S1>/Delay'
+ // Delay: '<S3>/Delay'
+ // Delay: '<S3>/Delay1'
+
+ rtDW.b_I[0] = 0.01023564759;
+ rtDW.b_I[3] = 0.0;
+ rtDW.b_I[6] = 0.0;
+ rtDW.b_I[1] = 0.0;
+ rtDW.b_I[4] = 0.01023564759;
+ rtDW.b_I[7] = 0.0;
+ rtDW.b_I[2] = 0.0;
+ rtDW.b_I[5] = 0.0;
+ rtDW.b_I[8] = 0.02047129518;
+ rtDW.maxval = std::cos(rtDW.Delay1_DSTATE_l[2]);
+ rtDW.b_I_k[0] = rtDW.maxval;
+ rtDW.Add1_k = std::sin(rtDW.Delay1_DSTATE_l[2]);
+ rtDW.b_I_k[3] = -rtDW.Add1_k;
+ rtDW.b_I_k[6] = 0.0;
+ rtDW.b_I_k[1] = rtDW.Add1_k;
+ rtDW.b_I_k[4] = rtDW.maxval;
+ rtDW.b_I_k[7] = 0.0;
+ rtDW.b_I_k[2] = 0.0;
+ rtDW.d[0] = 1.0;
+ rtDW.b_I_k[5] = 0.0;
+ rtDW.d[3] = 0.0;
+ rtDW.b_I_k[8] = 1.0;
+ rtDW.d[6] = 0.0;
+ rtDW.d[1] = 0.0;
+ Fdes_idx_0 = std::cos(rtDW.Delay1_DSTATE_l[0]);
+ rtDW.d[4] = Fdes_idx_0;
+ Fdes_idx_1 = std::sin(rtDW.Delay1_DSTATE_l[0]);
+ rtDW.d[7] = -Fdes_idx_1;
+ rtDW.d[2] = 0.0;
+ rtDW.d[5] = Fdes_idx_1;
+ rtDW.d[8] = Fdes_idx_0;
+ rtDW.maxval = std::cos(rtDW.Delay1_DSTATE_l[1]);
+ rtDW.dv0[0] = rtDW.maxval;
+ rtDW.dv0[3] = 0.0;
+ rtDW.Add1_k = std::sin(rtDW.Delay1_DSTATE_l[1]);
+ rtDW.dv0[6] = rtDW.Add1_k;
+ for (r1 = 0; r1 < 3; r1++) {
+ for (i = 0; i < 3; i++) {
+ R_tmp = r1 + 3 * i;
+ rtDW.R_c[R_tmp] = 0.0;
+ rtDW.R_c[R_tmp] += rtDW.d[3 * i] * rtDW.b_I_k[r1];
+ rtDW.R_c[R_tmp] += rtDW.d[3 * i + 1] * rtDW.b_I_k[r1 + 3];
+ rtDW.R_c[R_tmp] += rtDW.d[3 * i + 2] * rtDW.b_I_k[r1 + 6];
+ }
+
+ rtDW.dv0[1 + 3 * r1] = b[r1];
+ }
+
+ rtDW.dv0[2] = -rtDW.Add1_k;
+ rtDW.dv0[5] = 0.0;
+ rtDW.dv0[8] = rtDW.maxval;
+ rtDW.w_dot[0] = 0.0;
+ rtDW.w_dot[1] = 0.0;
+ rtDW.w_dot[2] = rtDW.Delay_DSTATE[0];
+ rtDW.dv2[0] = 0.0;
+ rtDW.dv2[1] = 0.0;
+ rtDW.dv2[2] = -7.3575;
+ for (r1 = 0; r1 < 3; r1++) {
+ rtDW.wb[r1] = 0.0;
+ for (i = 0; i < 3; i++) {
+ R_tmp = r1 + 3 * i;
+ rtDW.b_I_k[R_tmp] = 0.0;
+ rtDW.b_I_k[R_tmp] += rtDW.dv0[3 * i] * rtDW.R_c[r1];
+ rtDW.b_I_k[R_tmp] += rtDW.dv0[3 * i + 1] * rtDW.R_c[r1 + 3];
+ rtDW.b_I_k[R_tmp] += rtDW.dv0[3 * i + 2] * rtDW.R_c[r1 + 6];
+ rtDW.wb[r1] += rtDW.b_I_k[R_tmp] * rtDW.w_dot[i];
+ }
+
+ rtDW.a_dotdot[r1] = (rtDW.dv2[r1] + rtDW.wb[r1]) * 1.3333333333333333;
+ }
+
+ rtDW.b_I_k[0] = rtDW.maxval;
+ rtDW.b_I_k[3] = 0.0;
+ rtDW.b_I_k[6] = -Fdes_idx_0 * rtDW.Add1_k;
+ rtDW.b_I_k[1] = 0.0;
+ rtDW.b_I_k[4] = 1.0;
+ rtDW.b_I_k[7] = Fdes_idx_1;
+ rtDW.b_I_k[2] = rtDW.Add1_k;
+ rtDW.b_I_k[5] = 0.0;
+ rtDW.b_I_k[8] = Fdes_idx_0 * rtDW.maxval;
+ for (r1 = 0; r1 < 3; r1++) {
+ rtDW.wb[r1] = rtDW.b_I_k[r1 + 6] * rtDW.Delay_DSTATE_h[2] + (rtDW.b_I_k[r1 +
+ 3] * rtDW.Delay_DSTATE_h[1] + rtDW.b_I_k[r1] * rtDW.Delay_DSTATE_h[0]);
+ }
+
+ rtDW.b_I_k[0] = 0.0;
+ rtDW.b_I_k[3] = -rtDW.wb[2];
+ rtDW.b_I_k[6] = rtDW.wb[1];
+ rtDW.b_I_k[1] = rtDW.wb[2];
+ rtDW.b_I_k[4] = 0.0;
+ rtDW.b_I_k[7] = -rtDW.wb[0];
+ rtDW.b_I_k[2] = -rtDW.wb[1];
+ rtDW.b_I_k[5] = rtDW.wb[0];
+ rtDW.b_I_k[8] = 0.0;
+ rtDW.w_dot[0] = rtDW.Delay_DSTATE[1];
+ rtDW.w_dot[1] = rtDW.Delay_DSTATE[2];
+ rtDW.w_dot[2] = rtDW.Delay_DSTATE[3];
+ for (r1 = 0; r1 < 3; r1++) {
+ rtDW.dv2[r1] = 0.0;
+ for (i = 0; i < 3; i++) {
+ R_tmp = r1 + 3 * i;
+ rtDW.R_c[R_tmp] = 0.0;
+ rtDW.R_c[R_tmp] += rtDW.b_I[3 * i] * rtDW.b_I_k[r1];
+ rtDW.R_c[R_tmp] += rtDW.b_I[3 * i + 1] * rtDW.b_I_k[r1 + 3];
+ rtDW.R_c[R_tmp] += rtDW.b_I[3 * i + 2] * rtDW.b_I_k[r1 + 6];
+ rtDW.dv2[r1] += rtDW.R_c[R_tmp] * rtDW.wb[i];
+ }
+
+ rtDW.Iw_dot[r1] = rtDW.w_dot[r1] - rtDW.dv2[r1];
+ }
+
+ rtDW.w_dot[1] = rtDW.Iw_dot[1] - rtDW.Iw_dot[0] * 0.0;
+ rtDW.w_dot[2] = (rtDW.Iw_dot[2] - rtDW.Iw_dot[0] * 0.0) - rtDW.w_dot[1] * 0.0;
+ rtDW.w_dot[2] /= 0.02047129518;
+ rtDW.w_dot[0] = rtDW.Iw_dot[0] - rtDW.w_dot[2] * 0.0;
+ rtDW.w_dot[1] -= rtDW.w_dot[2] * 0.0;
+ rtDW.w_dot[1] /= 0.01023564759;
+ rtDW.w_dot[0] -= rtDW.w_dot[1] * 0.0;
+ rtDW.w_dot[0] /= 0.01023564759;
+
+ // DiscreteIntegrator: '<S13>/Integrator'
+ for (r1 = 0; r1 < 6; r1++) {
+ if (rtDW.Integrator_PrevResetState != 0) {
+ rtDW.Integrator_DSTATE_ep[r1] = 0.0;
+ if (rtDW.Integrator_DSTATE_ep[r1] >= 10.0) {
+ rtDW.Integrator_DSTATE_ep[r1] = 10.0;
+ } else {
+ if (rtDW.Integrator_DSTATE_ep[r1] <= -10.0) {
+ rtDW.Integrator_DSTATE_ep[r1] = -10.0;
+ }
+ }
+ }
+
+ if (rtDW.Integrator_DSTATE_ep[r1] >= 10.0) {
+ rtDW.Integrator_DSTATE_ep[r1] = 10.0;
+ } else {
+ if (rtDW.Integrator_DSTATE_ep[r1] <= -10.0) {
+ rtDW.Integrator_DSTATE_ep[r1] = -10.0;
+ }
+ }
+
+ rtDW.Integrator[r1] = rtDW.Integrator_DSTATE_ep[r1];
+ }
+
+ // DiscreteIntegrator: '<S14>/Integrator' incorporates:
+ // Inport: '<Root>/phi'
+ // Inport: '<Root>/psi'
+ // Inport: '<Root>/theta'
+ // Inport: '<Root>/x'
+ // Inport: '<Root>/y'
+ // Inport: '<Root>/z'
+
+ if (rtDW.Integrator_IC_LOADING != 0) {
+ rtDW.Integrator_DSTATE_k[0] = rtU.x;
+ rtDW.Integrator_DSTATE_k[1] = rtU.y;
+ rtDW.Integrator_DSTATE_k[2] = rtU.z;
+ rtDW.Integrator_DSTATE_k[3] = rtU.phi;
+ rtDW.Integrator_DSTATE_k[4] = rtU.theta;
+ rtDW.Integrator_DSTATE_k[5] = rtU.psi;
+ for (r1 = 0; r1 < 6; r1++) {
+ if (rtDW.Integrator_DSTATE_k[r1] >= 10.0) {
+ rtDW.Integrator_DSTATE_k[r1] = 10.0;
+ } else {
+ if (rtDW.Integrator_DSTATE_k[r1] <= -10.0) {
+ rtDW.Integrator_DSTATE_k[r1] = -10.0;
+ }
+ }
+ }
+ }
+
+ if (rtDW.Integrator_PrevResetState_n != 0) {
+ rtDW.Integrator_DSTATE_k[0] = rtU.x;
+ rtDW.Integrator_DSTATE_k[1] = rtU.y;
+ rtDW.Integrator_DSTATE_k[2] = rtU.z;
+ rtDW.Integrator_DSTATE_k[3] = rtU.phi;
+ rtDW.Integrator_DSTATE_k[4] = rtU.theta;
+ rtDW.Integrator_DSTATE_k[5] = rtU.psi;
+ for (r1 = 0; r1 < 6; r1++) {
+ if (rtDW.Integrator_DSTATE_k[r1] >= 10.0) {
+ rtDW.Integrator_DSTATE_k[r1] = 10.0;
+ } else {
+ if (rtDW.Integrator_DSTATE_k[r1] <= -10.0) {
+ rtDW.Integrator_DSTATE_k[r1] = -10.0;
+ }
+ }
+ }
+ }
+
+ for (r1 = 0; r1 < 6; r1++) {
+ if (rtDW.Integrator_DSTATE_k[r1] >= 10.0) {
+ rtDW.Integrator_DSTATE_k[r1] = 10.0;
+ } else {
+ if (rtDW.Integrator_DSTATE_k[r1] <= -10.0) {
+ rtDW.Integrator_DSTATE_k[r1] = -10.0;
+ }
+ }
+
+ rtDW.Integrator_p[r1] = rtDW.Integrator_DSTATE_k[r1];
+ }
+
+ // Update for Delay: '<S3>/Delay' incorporates:
+ // DiscreteIntegrator: '<S13>/Integrator'
+
+ rtDW.Delay_DSTATE_h[0] = rtDW.Integrator_DSTATE_ep[3];
+
+ // Update for Delay: '<S3>/Delay1' incorporates:
+ // DiscreteIntegrator: '<S14>/Integrator'
+
+ rtDW.Delay1_DSTATE_l[0] = rtDW.Integrator_DSTATE_k[3];
+
+ // Update for Delay: '<S3>/Delay' incorporates:
+ // DiscreteIntegrator: '<S13>/Integrator'
+
+ rtDW.Delay_DSTATE_h[1] = rtDW.Integrator_DSTATE_ep[4];
+
+ // Update for Delay: '<S3>/Delay1' incorporates:
+ // DiscreteIntegrator: '<S14>/Integrator'
+
+ rtDW.Delay1_DSTATE_l[1] = rtDW.Integrator_DSTATE_k[4];
+
+ // Update for Delay: '<S3>/Delay' incorporates:
+ // DiscreteIntegrator: '<S13>/Integrator'
+
+ rtDW.Delay_DSTATE_h[2] = rtDW.Integrator_DSTATE_ep[5];
+
+ // Update for Delay: '<S3>/Delay1' incorporates:
+ // DiscreteIntegrator: '<S14>/Integrator'
+
+ rtDW.Delay1_DSTATE_l[2] = rtDW.Integrator_DSTATE_k[5];
+
+ // Update for DiscreteIntegrator: '<S13>/Integrator' incorporates:
+ // MATLAB Function: '<S3>/Euler equations of motion1 '
+
+ rtDW.dv1[0] = 0.0001 * rtDW.a_dotdot[0];
+ rtDW.dv1[1] = 0.0001 * rtDW.a_dotdot[1];
+ rtDW.dv1[2] = 0.0001 * rtDW.a_dotdot[2];
+ rtDW.dv1[3] = 0.0001 * rtDW.w_dot[0];
+ rtDW.dv1[4] = 0.0001 * rtDW.w_dot[1];
+ rtDW.dv1[5] = 0.0001 * rtDW.w_dot[2];
+ rtDW.Integrator_PrevResetState = 0;
+
+ // Update for DiscreteIntegrator: '<S14>/Integrator'
+ rtDW.Integrator_IC_LOADING = 0U;
+ for (r1 = 0; r1 < 6; r1++) {
+ // Update for DiscreteIntegrator: '<S13>/Integrator'
+ rtDW.Integrator_DSTATE_ep[r1] += rtDW.dv1[r1];
+ if (rtDW.Integrator_DSTATE_ep[r1] >= 10.0) {
+ rtDW.Integrator_DSTATE_ep[r1] = 10.0;
+ } else {
+ if (rtDW.Integrator_DSTATE_ep[r1] <= -10.0) {
+ rtDW.Integrator_DSTATE_ep[r1] = -10.0;
+ }
+ }
+
+ // Update for DiscreteIntegrator: '<S14>/Integrator'
+ rtDW.Integrator_DSTATE_k[r1] += 0.0001 * rtDW.Integrator[r1];
+ if (rtDW.Integrator_DSTATE_k[r1] >= 10.0) {
+ rtDW.Integrator_DSTATE_k[r1] = 10.0;
+ } else {
+ if (rtDW.Integrator_DSTATE_k[r1] <= -10.0) {
+ rtDW.Integrator_DSTATE_k[r1] = -10.0;
+ }
+ }
+ }
+
+ // Update for DiscreteIntegrator: '<S14>/Integrator'
+ rtDW.Integrator_PrevResetState_n = 0;
+
+ // End of Outputs for SubSystem: '<S1>/quadcopter_dynamics_prediction'
+
+ // Outputs for Atomic SubSystem: '<S1>/largepaa'
+ // Outputs for Enabled SubSystem: '<S2>/large_controller' incorporates:
+ // EnablePort: '<S5>/Enable'
+
+ // MATLAB Function: '<S5>/MATLAB Function3' incorporates:
+ // Constant: '<S2>/mass 1'
+ // Delay: '<S2>/Delay'
+ // Inport: '<Root>/angles'
+ // Inport: '<Root>/r'
+ // Inport: '<Root>/rdot'
+ // Inport: '<Root>/wb'
+ // Inport: '<Root>/x'
+ // Inport: '<Root>/y'
+ // Inport: '<Root>/z'
+
+ rtDW.a_dotdot[0] = rtU.r[0] - rtU.x;
+ rtDW.a_dotdot[1] = rtU.r[1] - rtU.y;
+ rtDW.a_dotdot[2] = rtU.r[2] - rtU.z;
+ Fdes_idx_0 = -rtDW.Delay_DSTATE_hf[0] * rtDW.a_dotdot[0] -
+ rtDW.Delay_DSTATE_hf[3] * rtU.rdot[0];
+ rtDW.Iw_dot[0] = rtU.rdot[0];
+ rtDW.w_dot[0] = 0.0;
+ Fdes_idx_1 = -rtDW.Delay_DSTATE_hf[1] * rtDW.a_dotdot[1] -
+ rtDW.Delay_DSTATE_hf[4] * rtU.rdot[1];
+ rtDW.Iw_dot[1] = rtU.rdot[1];
+ rtDW.w_dot[1] = 0.0;
+ Fdes_idx_2 = ((-rtDW.Delay_DSTATE_hf[2] * rtDW.a_dotdot[2] -
+ rtDW.Delay_DSTATE_hf[5] * rtU.rdot[2]) - 7.3575) + 7.3575;
+ rtDW.Iw_dot[2] = rtU.rdot[2];
+ rtDW.w_dot[2] = 1.0;
+ rtDW.maxval = std::sqrt((Fdes_idx_0 * Fdes_idx_0 + Fdes_idx_1 * Fdes_idx_1) +
+ Fdes_idx_2 * Fdes_idx_2);
+ if (rtDW.maxval == 0.0) {
+ rtDW.maxval = 1.0;
+ }
+
+ rtDW.maxval = 1.0 / rtDW.maxval;
+ rtDW.Zbdes[0] = rtDW.maxval * Fdes_idx_0;
+ rtDW.Zbdes[1] = rtDW.maxval * Fdes_idx_1;
+ rtDW.Zbdes[2] = rtDW.maxval * Fdes_idx_2;
+ rtDW.crossZX[0] = rtDW.Zbdes[1] * 0.0 - rtDW.Zbdes[2] * 0.0;
+ rtDW.crossZX[1] = rtDW.Zbdes[2] - rtDW.Zbdes[0] * 0.0;
+ rtDW.crossZX[2] = rtDW.Zbdes[0] * 0.0 - rtDW.Zbdes[1];
+ rtDW.maxval = std::sqrt((rtDW.crossZX[0] * rtDW.crossZX[0] + rtDW.crossZX[1] *
+ rtDW.crossZX[1]) + rtDW.crossZX[2] * rtDW.crossZX[2]);
+ if (rtDW.maxval == 0.0) {
+ rtDW.maxval = 1.0;
+ }
+
+ rtDW.maxval = 1.0 / rtDW.maxval;
+ rtDW.Add1_k = rtDW.maxval * rtDW.crossZX[0];
+ rtDW.b_I[3] = rtDW.Add1_k;
+ rtDW.b_I[6] = rtDW.Zbdes[0];
+ rtDW.crossZX[0] = rtDW.Add1_k;
+ rtDW.Add1_k = rtDW.maxval * rtDW.crossZX[1];
+ rtDW.b_I[4] = rtDW.Add1_k;
+ rtDW.b_I[7] = rtDW.Zbdes[1];
+ rtDW.crossZX[1] = rtDW.Add1_k;
+ rtDW.Add1_k = rtDW.maxval * rtDW.crossZX[2];
+ rtDW.b_I[5] = rtDW.Add1_k;
+ rtDW.b_I[8] = rtDW.Zbdes[2];
+ rtDW.b_I[0] = rtDW.crossZX[1] * rtDW.Zbdes[2] - rtDW.Add1_k * rtDW.Zbdes[1];
+ rtDW.b_I[1] = rtDW.Add1_k * rtDW.Zbdes[0] - rtDW.crossZX[0] * rtDW.Zbdes[2];
+ rtDW.b_I[2] = rtDW.crossZX[0] * rtDW.Zbdes[1] - rtDW.crossZX[1] * rtDW.Zbdes[0];
+ rtDW.maxval = std::cos(rtU.angles[2]);
+ rtDW.b_I_k[0] = rtDW.maxval;
+ rtDW.Add1_k = std::sin(rtU.angles[2]);
+ rtDW.b_I_k[3] = -rtDW.Add1_k;
+ rtDW.b_I_k[6] = 0.0;
+ rtDW.b_I_k[1] = rtDW.Add1_k;
+ rtDW.b_I_k[4] = rtDW.maxval;
+ rtDW.b_I_k[7] = 0.0;
+ rtDW.b_I_k[2] = 0.0;
+ rtDW.d[0] = 1.0;
+ rtDW.b_I_k[5] = 0.0;
+ rtDW.d[3] = 0.0;
+ rtDW.b_I_k[8] = 1.0;
+ rtDW.d[6] = 0.0;
+ rtDW.d[1] = 0.0;
+ rtDW.maxval = std::cos(rtU.angles[0]);
+ rtDW.d[4] = rtDW.maxval;
+ rtDW.Add1_k = std::sin(rtU.angles[0]);
+ rtDW.d[7] = -rtDW.Add1_k;
+ rtDW.d[2] = 0.0;
+ rtDW.d[5] = rtDW.Add1_k;
+ rtDW.d[8] = rtDW.maxval;
+ rtDW.maxval = std::cos(rtU.angles[1]);
+ rtDW.dv0[0] = rtDW.maxval;
+ rtDW.dv0[3] = 0.0;
+ rtDW.Add1_k = std::sin(rtU.angles[1]);
+ rtDW.dv0[6] = rtDW.Add1_k;
+ for (r1 = 0; r1 < 3; r1++) {
+ for (i = 0; i < 3; i++) {
+ R_tmp = r1 + 3 * i;
+ rtDW.R_c[R_tmp] = 0.0;
+ rtDW.R_c[R_tmp] += rtDW.d[3 * i] * rtDW.b_I_k[r1];
+ rtDW.R_c[R_tmp] += rtDW.d[3 * i + 1] * rtDW.b_I_k[r1 + 3];
+ rtDW.R_c[R_tmp] += rtDW.d[3 * i + 2] * rtDW.b_I_k[r1 + 6];
+ }
+
+ rtDW.dv0[1 + 3 * r1] = c[r1];
+ }
+
+ rtDW.dv0[2] = -rtDW.Add1_k;
+ rtDW.dv0[5] = 0.0;
+ rtDW.dv0[8] = rtDW.maxval;
+ for (r1 = 0; r1 < 3; r1++) {
+ rtDW.Zbdes[r1] = 0.0;
+ for (i = 0; i < 3; i++) {
+ R_tmp = r1 + 3 * i;
+ rtDW.R[R_tmp] = 0.0;
+ rtDW.R[R_tmp] += rtDW.dv0[3 * i] * rtDW.R_c[r1];
+ rtDW.R[R_tmp] += rtDW.dv0[3 * i + 1] * rtDW.R_c[r1 + 3];
+ rtDW.R[R_tmp] += rtDW.dv0[3 * i + 2] * rtDW.R_c[r1 + 6];
+ rtDW.Zbdes[r1] += rtDW.R[R_tmp] * rtDW.w_dot[i];
+ }
+ }
+
+ for (r1 = 0; r1 < 3; r1++) {
+ for (i = 0; i < 3; i++) {
+ R_tmp = r1 + 3 * i;
+ rtDW.b_I_k[R_tmp] = 0.0;
+ rtDW.R_c[R_tmp] = 0.0;
+ rtDW.b_I_k[R_tmp] += rtDW.b_I[3 * r1] * rtDW.R[3 * i];
+ rtDW.R_c[R_tmp] += rtDW.R[3 * r1] * rtDW.b_I[3 * i];
+ b_I_tmp = 3 * r1 + 1;
+ b_I_tmp_0 = 3 * i + 1;
+ rtDW.b_I_k[R_tmp] += rtDW.b_I[b_I_tmp] * rtDW.R[b_I_tmp_0];
+ rtDW.R_c[R_tmp] += rtDW.R[b_I_tmp] * rtDW.b_I[b_I_tmp_0];
+ b_I_tmp = 3 * r1 + 2;
+ b_I_tmp_0 = 3 * i + 2;
+ rtDW.b_I_k[R_tmp] += rtDW.b_I[b_I_tmp] * rtDW.R[b_I_tmp_0];
+ rtDW.R_c[R_tmp] += rtDW.R[b_I_tmp] * rtDW.b_I[b_I_tmp_0];
+ }
+ }
+
+ for (r1 = 0; r1 < 9; r1++) {
+ rtDW.b_I[r1] = (rtDW.b_I_k[r1] - rtDW.R_c[r1]) * 0.5;
+ }
+
+ rtDW.Xc[0] = rtDW.b_I[5];
+ rtDW.Xc[1] = rtDW.b_I[6];
+ rtDW.Xc[2] = rtDW.b_I[1];
+ rtDW.b_I_k[0] = -rtDW.Delay_DSTATE_hf[6];
+ rtDW.b_I_k[3] = -0.0;
+ rtDW.b_I_k[6] = -0.0;
+ rtDW.b_I_k[1] = -0.0;
+ rtDW.b_I_k[4] = -rtDW.Delay_DSTATE_hf[7];
+ rtDW.b_I_k[7] = -0.0;
+ rtDW.b_I_k[2] = -0.0;
+ rtDW.b_I_k[5] = -0.0;
+ rtDW.b_I_k[8] = -rtDW.Delay_DSTATE_hf[8];
+ rtDW.R_c[0] = rtDW.Delay_DSTATE_hf[9];
+ rtDW.R_c[3] = 0.0;
+ rtDW.R_c[6] = 0.0;
+ rtDW.R_c[1] = 0.0;
+ rtDW.R_c[4] = rtDW.Delay_DSTATE_hf[10];
+ rtDW.R_c[7] = 0.0;
+ rtDW.R_c[2] = 0.0;
+ rtDW.R_c[5] = 0.0;
+ rtDW.R_c[8] = rtDW.Delay_DSTATE_hf[11];
+ for (r1 = 0; r1 < 3; r1++) {
+ rtDW.psy[r1] = rtDW.a_dotdot[r1];
+ rtDW.psy[r1 + 3] = rtDW.Iw_dot[r1];
+ rtDW.psy[r1 + 6] = rtDW.Xc[r1];
+ rtDW.psy[r1 + 9] = rtU.wb[r1];
+ rtDW.crossZX[r1] = rtU.wb[r1];
+ rtDW.w_dot[r1] = rtDW.b_I_k[r1 + 6] * rtDW.Xc[2] + (rtDW.b_I_k[r1 + 3] *
+ rtDW.Xc[1] + rtDW.b_I_k[r1] * rtDW.Xc[0]);
+ }
+
+ rtDW.A[0] = ((Fdes_idx_0 * rtDW.Zbdes[0] + Fdes_idx_1 * rtDW.Zbdes[1]) +
+ Fdes_idx_2 * rtDW.Zbdes[2]) + 7.3575;
+ for (r1 = 0; r1 < 3; r1++) {
+ rtDW.A[r1 + 1] = rtDW.w_dot[r1] - (rtDW.R_c[r1 + 6] * rtDW.crossZX[2] +
+ (rtDW.R_c[r1 + 3] * rtDW.crossZX[1] + rtDW.R_c[r1] * rtDW.crossZX[0]));
+ }
+
+ // End of MATLAB Function: '<S5>/MATLAB Function3'
+
+ // Saturate: '<S5>/Saturation'
+ if (rtDW.A[0] > 27.0) {
+ rtDW.maxval = 27.0;
+ } else if (rtDW.A[0] < 0.0) {
+ rtDW.maxval = 0.0;
+ } else {
+ rtDW.maxval = rtDW.A[0];
+ }
+
+ if (rtDW.A[1] > 1.6) {
+ Fdes_idx_0 = 1.6;
+ } else if (rtDW.A[1] < -1.6) {
+ Fdes_idx_0 = -1.6;
+ } else {
+ Fdes_idx_0 = rtDW.A[1];
+ }
+
+ if (rtDW.A[2] > 1.6) {
+ Fdes_idx_1 = 1.6;
+ } else if (rtDW.A[2] < -1.6) {
+ Fdes_idx_1 = -1.6;
+ } else {
+ Fdes_idx_1 = rtDW.A[2];
+ }
+
+ if (rtDW.A[3] > 0.6) {
+ Fdes_idx_2 = 0.6;
+ } else if (rtDW.A[3] < -0.6) {
+ Fdes_idx_2 = -0.6;
+ } else {
+ Fdes_idx_2 = rtDW.A[3];
+ }
+
+ // End of Saturate: '<S5>/Saturation'
+
+ // MATLAB Function: '<S5>/MATLAB Function1'
+ for (r1 = 0; r1 < 4; r1++) {
+ rtDW.Add1_k = a[r1 + 12] * Fdes_idx_2 + (a[r1 + 8] * Fdes_idx_1 + (a[r1 + 4]
+ * Fdes_idx_0 + a[r1] * rtDW.maxval));
+ rtDW.A[r1] = rtDW.Add1_k;
+ }
+
+ if (rtDW.A[0] < 0.0) {
+ rtDW.A[0] = 0.0;
+ }
+
+ if (rtDW.A[1] < 0.0) {
+ rtDW.A[1] = 0.0;
+ }
+
+ if (rtDW.A[2] < 0.0) {
+ rtDW.A[2] = 0.0;
+ }
+
+ if (rtDW.A[3] < 0.0) {
+ rtDW.A[3] = 0.0;
+ }
+
+ rtDW.duty[0] = (3485.3574033876184 * std::sqrt(rtDW.A[0]) * 0.1865 + 768.0) /
+ 20000.0;
+ rtDW.duty[1] = (3485.3574033876184 * std::sqrt(rtDW.A[1]) * 0.1865 + 768.0) /
+ 20000.0;
+ rtDW.duty[2] = (3485.3574033876184 * std::sqrt(rtDW.A[2]) * 0.1865 + 768.0) /
+ 20000.0;
+ rtDW.duty[3] = (3485.3574033876184 * std::sqrt(rtDW.A[3]) * 0.1865 + 768.0) /
+ 20000.0;
+
+ // End of MATLAB Function: '<S5>/MATLAB Function1'
+ // End of Outputs for SubSystem: '<S2>/large_controller'
+
+ // MATLAB Function: '<S6>/MATLAB Function3'
+ rtDW.F[0] = 0.001;
+ rtDW.F[12] = 0.0;
+ rtDW.F[24] = 0.0;
+ rtDW.F[36] = 0.0;
+ rtDW.F[48] = 0.0;
+ rtDW.F[60] = 0.0;
+ rtDW.F[72] = 0.0;
+ rtDW.F[84] = 0.0;
+ rtDW.F[96] = 0.0;
+ rtDW.F[108] = 0.0;
+ rtDW.F[120] = 0.0;
+ rtDW.F[132] = 0.0;
+ rtDW.F[1] = 0.0;
+ rtDW.F[13] = 0.001;
+ rtDW.F[25] = 0.0;
+ rtDW.F[37] = 0.0;
+ rtDW.F[49] = 0.0;
+ rtDW.F[61] = 0.0;
+ rtDW.F[73] = 0.0;
+ rtDW.F[85] = 0.0;
+ rtDW.F[97] = 0.0;
+ rtDW.F[109] = 0.0;
+ rtDW.F[121] = 0.0;
+ rtDW.F[133] = 0.0;
+ rtDW.F[2] = 0.0;
+ rtDW.F[14] = 0.0;
+ rtDW.F[26] = 0.001;
+ rtDW.F[38] = 0.0;
+ rtDW.F[50] = 0.0;
+ rtDW.F[62] = 0.0;
+ rtDW.F[74] = 0.0;
+ rtDW.F[86] = 0.0;
+ rtDW.F[98] = 0.0;
+ rtDW.F[110] = 0.0;
+ rtDW.F[122] = 0.0;
+ rtDW.F[134] = 0.0;
+ rtDW.F[3] = 0.0;
+ rtDW.F[15] = 0.0;
+ rtDW.F[27] = 0.0;
+ rtDW.F[39] = 0.001;
+ rtDW.F[51] = 0.0;
+ rtDW.F[63] = 0.0;
+ rtDW.F[75] = 0.0;
+ rtDW.F[87] = 0.0;
+ rtDW.F[99] = 0.0;
+ rtDW.F[111] = 0.0;
+ rtDW.F[123] = 0.0;
+ rtDW.F[135] = 0.0;
+ rtDW.F[4] = 0.0;
+ rtDW.F[16] = 0.0;
+ rtDW.F[28] = 0.0;
+ rtDW.F[40] = 0.0;
+ rtDW.F[52] = 0.001;
+ rtDW.F[64] = 0.0;
+ rtDW.F[76] = 0.0;
+ rtDW.F[88] = 0.0;
+ rtDW.F[100] = 0.0;
+ rtDW.F[112] = 0.0;
+ rtDW.F[124] = 0.0;
+ rtDW.F[136] = 0.0;
+ rtDW.F[5] = 0.0;
+ rtDW.F[17] = 0.0;
+ rtDW.F[29] = 0.0;
+ rtDW.F[41] = 0.0;
+ rtDW.F[53] = 0.0;
+ rtDW.F[65] = 0.001;
+ rtDW.F[77] = 0.0;
+ rtDW.F[89] = 0.0;
+ rtDW.F[101] = 0.0;
+ rtDW.F[113] = 0.0;
+ rtDW.F[125] = 0.0;
+ rtDW.F[137] = 0.0;
+ rtDW.F[6] = 0.0;
+ rtDW.F[18] = 0.0;
+ rtDW.F[30] = 0.0;
+ rtDW.F[42] = 0.0;
+ rtDW.F[54] = 0.0;
+ rtDW.F[66] = 0.0;
+ rtDW.F[78] = 0.0001;
+ rtDW.F[90] = 0.0;
+ rtDW.F[102] = 0.0;
+ rtDW.F[114] = 0.0;
+ rtDW.F[126] = 0.0;
+ rtDW.F[138] = 0.0;
+ rtDW.F[7] = 0.0;
+ rtDW.F[19] = 0.0;
+ rtDW.F[31] = 0.0;
+ rtDW.F[43] = 0.0;
+ rtDW.F[55] = 0.0;
+ rtDW.F[67] = 0.0;
+ rtDW.F[79] = 0.0;
+ rtDW.F[91] = 0.0001;
+ rtDW.F[103] = 0.0;
+ rtDW.F[115] = 0.0;
+ rtDW.F[127] = 0.0;
+ rtDW.F[139] = 0.0;
+ rtDW.F[8] = 0.0;
+ rtDW.F[20] = 0.0;
+ rtDW.F[32] = 0.0;
+ rtDW.F[44] = 0.0;
+ rtDW.F[56] = 0.0;
+ rtDW.F[68] = 0.0;
+ rtDW.F[80] = 0.0;
+ rtDW.F[92] = 0.0;
+ rtDW.F[104] = 0.0001;
+ rtDW.F[116] = 0.0;
+ rtDW.F[128] = 0.0;
+ rtDW.F[140] = 0.0;
+ rtDW.F[9] = 0.0;
+ rtDW.F[21] = 0.0;
+ rtDW.F[33] = 0.0;
+ rtDW.F[45] = 0.0;
+ rtDW.F[57] = 0.0;
+ rtDW.F[69] = 0.0;
+ rtDW.F[81] = 0.0;
+ rtDW.F[93] = 0.0;
+ rtDW.F[105] = 0.0;
+ rtDW.F[117] = 0.0001;
+ rtDW.F[129] = 0.0;
+ rtDW.F[141] = 0.0;
+ rtDW.F[10] = 0.0;
+ rtDW.F[22] = 0.0;
+ rtDW.F[34] = 0.0;
+ rtDW.F[46] = 0.0;
+ rtDW.F[58] = 0.0;
+ rtDW.F[70] = 0.0;
+ rtDW.F[82] = 0.0;
+ rtDW.F[94] = 0.0;
+ rtDW.F[106] = 0.0;
+ rtDW.F[118] = 0.0;
+ rtDW.F[130] = 0.0001;
+ rtDW.F[142] = 0.0;
+ rtDW.F[11] = 0.0;
+ rtDW.F[23] = 0.0;
+ rtDW.F[35] = 0.0;
+ rtDW.F[47] = 0.0;
+ rtDW.F[59] = 0.0;
+ rtDW.F[71] = 0.0;
+ rtDW.F[83] = 0.0;
+ rtDW.F[95] = 0.0;
+ rtDW.F[107] = 0.0;
+ rtDW.F[119] = 0.0;
+ rtDW.F[131] = 0.0;
+ rtDW.F[143] = 0.0001;
+ rtDW.maxval = 0.0;
+ for (r1 = 0; r1 < 12; r1++) {
+ rtDW.rtb_Delay1_m[r1] = 0.0;
+ for (i = 0; i < 12; i++) {
+ rtDW.rtb_Delay1_m[r1] += rtDW.F[12 * r1 + i] * rtDW.Delay1[i];
+ }
+
+ rtDW.maxval += rtDW.rtb_Delay1_m[r1] * rtDW.Delay1[r1];
+ }
+
+ // SignalConversion: '<S9>/TmpSignal ConversionAt SFunction Inport2' incorporates:
+ // Inport: '<Root>/angles'
+ // Inport: '<Root>/r'
+ // Inport: '<Root>/rdot'
+ // Inport: '<Root>/wb'
+ // MATLAB Function: '<S6>/MATLAB Function3'
+ // Sum: '<S6>/Add1'
+ // Sum: '<S6>/Add2'
+ // Sum: '<S6>/Add3'
+ // Sum: '<S6>/Add4'
+
+ rtDW.rtb_Delay1_m[0] = rtU.r[0] - rtDW.Integrator_p[0];
+ rtDW.rtb_Delay1_m[3] = rtU.rdot[0] - rtDW.Integrator[0];
+ rtDW.rtb_Delay1_m[6] = rtU.angles[0] - rtDW.Integrator_p[3];
+ rtDW.rtb_Delay1_m[9] = rtU.wb[0] - rtDW.wb[0];
+ rtDW.rtb_Delay1_m[1] = rtU.r[1] - rtDW.Integrator_p[1];
+ rtDW.rtb_Delay1_m[4] = rtU.rdot[1] - rtDW.Integrator[1];
+ rtDW.rtb_Delay1_m[7] = rtU.angles[1] - rtDW.Integrator_p[4];
+ rtDW.rtb_Delay1_m[10] = rtU.wb[1] - rtDW.wb[1];
+ rtDW.rtb_Delay1_m[2] = rtU.r[2] - rtDW.Integrator_p[2];
+ rtDW.rtb_Delay1_m[5] = rtU.rdot[2] - rtDW.Integrator[2];
+ rtDW.rtb_Delay1_m[8] = rtU.angles[2] - rtDW.Integrator_p[5];
+ rtDW.rtb_Delay1_m[11] = rtU.wb[2] - rtDW.wb[2];
+ for (r1 = 0; r1 < 12; r1++) {
+ // MATLAB Function: '<S6>/MATLAB Function3'
+ rtDW.F_c[r1] = 0.0;
+ for (i = 0; i < 12; i++) {
+ rtDW.F_c[r1] += rtDW.F[12 * i + r1] * rtDW.Delay1[i];
+ }
+
+ // Update for Delay: '<S2>/Delay' incorporates:
+ // MATLAB Function: '<S6>/MATLAB Function3'
+ // SignalConversion: '<S9>/TmpSignal ConversionAt SFunction Inport2'
+
+ rtDW.Delay_DSTATE_hf[r1] = rtDW.F_c[r1] * rtDW.rtb_Delay1_m[r1] / (1.0 +
+ rtDW.maxval) + b_0[r1];
+ }
+
+ // End of Outputs for SubSystem: '<S1>/largepaa'
+
+ // Outputs for Atomic SubSystem: '<S1>/small_angle_control'
+ // Sum: '<S22>/Add1' incorporates:
+ // Inport: '<Root>/x'
+
+ rtDW.maxval = rtU.x - rtDW.Integrator_p[0];
+
+ // Gain: '<S144>/Filter Coefficient' incorporates:
+ // DiscreteIntegrator: '<S136>/Filter'
+ // Gain: '<S135>/Derivative Gain'
+ // Sum: '<S136>/SumD'
+
+ Fdes_idx_0 = (1.68326013623818 * rtDW.maxval - rtDW.Filter_DSTATE) *
+ 206.264558996617;
+
+ // Sum: '<S22>/Add2' incorporates:
+ // Inport: '<Root>/y'
+
+ Fdes_idx_1 = rtU.y - rtDW.Integrator_p[1];
+
+ // Gain: '<S276>/Filter Coefficient' incorporates:
+ // DiscreteIntegrator: '<S268>/Filter'
+ // Gain: '<S267>/Derivative Gain'
+ // Sum: '<S268>/SumD'
+
+ Fdes_idx_2 = (1.68326013623818 * Fdes_idx_1 - rtDW.Filter_DSTATE_k) *
+ 206.264558996617;
+
+ // SignalConversion: '<S21>/TmpSignal ConversionAt SFunction Inport1' incorporates:
+ // DiscreteIntegrator: '<S141>/Integrator'
+ // DiscreteIntegrator: '<S273>/Integrator'
+ // Gain: '<S146>/Proportional Gain'
+ // Gain: '<S278>/Proportional Gain'
+ // MATLAB Function: '<S4>/MATLAB Function4'
+ // Sum: '<S150>/Sum'
+ // Sum: '<S282>/Sum'
+
+ rtb_TmpSignalConversionAtSFun_1 = (0.576051138105677 * rtDW.maxval +
+ rtDW.Integrator_DSTATE) + Fdes_idx_0;
+ rtb_TmpSignalConversionAtSFun_0 = (0.576051138105677 * Fdes_idx_1 +
+ rtDW.Integrator_DSTATE_a) + Fdes_idx_2;
+
+ // Sum: '<S23>/Add1' incorporates:
+ // Constant: '<S4>/Constant'
+ // MATLAB Function: '<S4>/MATLAB Function4'
+
+ rtDW.Add1_k = (rtb_TmpSignalConversionAtSFun_1 * 0.0 -
+ rtb_TmpSignalConversionAtSFun_0) * 0.1019367991845056 -
+ rtDW.Integrator_p[3];
+
+ // Gain: '<S188>/Filter Coefficient' incorporates:
+ // DiscreteIntegrator: '<S180>/Filter'
+ // Gain: '<S179>/Derivative Gain'
+ // Sum: '<S180>/SumD'
+
+ rtDW.FilterCoefficient_a = (0.171115754916436 * rtDW.Add1_k -
+ rtDW.Filter_DSTATE_m) * 176.087006843524;
+
+ // Sum: '<S23>/Add2' incorporates:
+ // Constant: '<S4>/Constant'
+ // MATLAB Function: '<S4>/MATLAB Function4'
+
+ rtb_TmpSignalConversionAtSFun_1 = (rtb_TmpSignalConversionAtSFun_0 * 0.0 +
+ rtb_TmpSignalConversionAtSFun_1) * 0.1019367991845056 - rtDW.Integrator_p[4];
+
+ // Gain: '<S56>/Filter Coefficient' incorporates:
+ // DiscreteIntegrator: '<S48>/Filter'
+ // Gain: '<S47>/Derivative Gain'
+ // Sum: '<S48>/SumD'
+
+ rtb_TmpSignalConversionAtSFun_0 = (0.171115754916436 *
+ rtb_TmpSignalConversionAtSFun_1 - rtDW.Filter_DSTATE_l) * 176.087006843524;
+
+ // Gain: '<S100>/Filter Coefficient' incorporates:
+ // Constant: '<S4>/Constant'
+ // DiscreteIntegrator: '<S92>/Filter'
+ // Gain: '<S91>/Derivative Gain'
+ // MATLAB Function: '<S4>/MATLAB Function4'
+ // Sum: '<S23>/Add3'
+ // Sum: '<S92>/SumD'
+
+ rtDW.FilterCoefficient_k = ((0.0 - rtDW.Integrator_p[5]) * 0.0490884878345462
+ - rtDW.Filter_DSTATE_lo) * 270.43836739932;
+
+ // SignalConversion: '<S4>/ConcatBufferAtVector ConcatenateIn2' incorporates:
+ // Constant: '<S4>/Constant'
+ // Delay: '<S1>/Delay'
+ // DiscreteIntegrator: '<S185>/Integrator'
+ // DiscreteIntegrator: '<S53>/Integrator'
+ // DiscreteIntegrator: '<S97>/Integrator'
+ // Gain: '<S102>/Proportional Gain'
+ // Gain: '<S190>/Proportional Gain'
+ // Gain: '<S58>/Proportional Gain'
+ // MATLAB Function: '<S4>/MATLAB Function4'
+ // Sum: '<S106>/Sum'
+ // Sum: '<S194>/Sum'
+ // Sum: '<S23>/Add3'
+ // Sum: '<S62>/Sum'
+
+ rtDW.Delay_DSTATE[1] = (0.421511657975665 * rtDW.Add1_k +
+ rtDW.Integrator_DSTATE_m) + rtDW.FilterCoefficient_a;
+ rtDW.Delay_DSTATE[2] = (0.421511657975665 * rtb_TmpSignalConversionAtSFun_1 +
+ rtDW.Integrator_DSTATE_e) + rtb_TmpSignalConversionAtSFun_0;
+ rtDW.Delay_DSTATE[3] = ((0.0 - rtDW.Integrator_p[5]) * 0.00309186213155581 +
+ rtDW.Integrator_DSTATE_o) + rtDW.FilterCoefficient_k;
+
+ // Sum: '<S22>/Add3' incorporates:
+ // Inport: '<Root>/z'
+
+ rtDW.Add3_a = rtU.z - rtDW.Integrator_p[2];
+
+ // Gain: '<S232>/Filter Coefficient' incorporates:
+ // DiscreteIntegrator: '<S224>/Filter'
+ // Gain: '<S223>/Derivative Gain'
+ // Sum: '<S224>/SumD'
+
+ rtDW.FilterCoefficient_i = (1.46547031640698 * rtDW.Add3_a -
+ rtDW.Filter_DSTATE_n) * 19.9677854964375;
+
+ // Sum: '<S4>/Add' incorporates:
+ // Delay: '<S1>/Delay'
+ // DiscreteIntegrator: '<S229>/Integrator'
+ // Gain: '<S234>/Proportional Gain'
+ // Sum: '<S238>/Sum'
+
+ rtDW.Delay_DSTATE[0] = ((0.547568478085603 * rtDW.Add3_a +
+ rtDW.Integrator_DSTATE_ao) + rtDW.FilterCoefficient_i) + 7.3575;
+
+ // Update for DiscreteIntegrator: '<S141>/Integrator' incorporates:
+ // Gain: '<S138>/Integral Gain'
+
+ rtDW.Integrator_DSTATE += 0.0492289691165195 * rtDW.maxval * 0.0001;
+
+ // Update for DiscreteIntegrator: '<S136>/Filter'
+ rtDW.Filter_DSTATE += 0.0001 * Fdes_idx_0;
+
+ // Update for DiscreteIntegrator: '<S273>/Integrator' incorporates:
+ // Gain: '<S270>/Integral Gain'
+
+ rtDW.Integrator_DSTATE_a += 0.0492289691165195 * Fdes_idx_1 * 0.0001;
+
+ // Update for DiscreteIntegrator: '<S268>/Filter'
+ rtDW.Filter_DSTATE_k += 0.0001 * Fdes_idx_2;
+
+ // Update for DiscreteIntegrator: '<S185>/Integrator' incorporates:
+ // Gain: '<S182>/Integral Gain'
+
+ rtDW.Integrator_DSTATE_m += 0.230387898131499 * rtDW.Add1_k * 0.0001;
+
+ // Update for DiscreteIntegrator: '<S180>/Filter'
+ rtDW.Filter_DSTATE_m += 0.0001 * rtDW.FilterCoefficient_a;
+
+ // Update for DiscreteIntegrator: '<S53>/Integrator' incorporates:
+ // Gain: '<S50>/Integral Gain'
+
+ rtDW.Integrator_DSTATE_e += 0.230387898131499 *
+ rtb_TmpSignalConversionAtSFun_1 * 0.0001;
+
+ // Update for DiscreteIntegrator: '<S48>/Filter'
+ rtDW.Filter_DSTATE_l += 0.0001 * rtb_TmpSignalConversionAtSFun_0;
+
+ // Update for DiscreteIntegrator: '<S97>/Integrator' incorporates:
+ // Constant: '<S4>/Constant'
+ // Gain: '<S94>/Integral Gain'
+ // MATLAB Function: '<S4>/MATLAB Function4'
+ // Sum: '<S23>/Add3'
+
+ rtDW.Integrator_DSTATE_o += (0.0 - rtDW.Integrator_p[5]) * 4.32690066926921E-5
+ * 0.0001;
+
+ // Update for DiscreteIntegrator: '<S92>/Filter'
+ rtDW.Filter_DSTATE_lo += 0.0001 * rtDW.FilterCoefficient_k;
+
+ // Update for DiscreteIntegrator: '<S229>/Integrator' incorporates:
+ // Gain: '<S226>/Integral Gain'
+
+ rtDW.Integrator_DSTATE_ao += 0.0506661578399485 * rtDW.Add3_a * 0.0001;
+
+ // Update for DiscreteIntegrator: '<S224>/Filter'
+ rtDW.Filter_DSTATE_n += 0.0001 * rtDW.FilterCoefficient_i;
+
+ // End of Outputs for SubSystem: '<S1>/small_angle_control'
+ // End of Outputs for SubSystem: '<Root>/Adaptive large angle controller'
+
+ // Outport: '<Root>/u1 '
+ rtY.u1 = rtDW.duty[0];
+
+ // Outport: '<Root>/u2 '
+ rtY.u2 = rtDW.duty[1];
+
+ // Outport: '<Root>/u3'
+ rtY.u3 = rtDW.duty[2];
+
+ // Outport: '<Root>/u4'
+ rtY.u4 = rtDW.duty[3];
+}
+
+// Model initialize function
+void LAAPModelClass::initialize()
+{
+ {
+ int32_T i;
+
+ // SystemInitialize for Atomic SubSystem: '<Root>/Adaptive large angle controller'
+ // SystemInitialize for Atomic SubSystem: '<S1>/quadcopter_dynamics_prediction'
+ // InitializeConditions for DiscreteIntegrator: '<S13>/Integrator'
+ for (i = 0; i < 6; i++) {
+ rtDW.Integrator_DSTATE_ep[i] = 0.0;
+ if (rtDW.Integrator_DSTATE_ep[i] >= 10.0) {
+ rtDW.Integrator_DSTATE_ep[i] = 10.0;
+ } else {
+ if (rtDW.Integrator_DSTATE_ep[i] <= -10.0) {
+ rtDW.Integrator_DSTATE_ep[i] = -10.0;
+ }
+ }
+ }
+
+ // End of InitializeConditions for DiscreteIntegrator: '<S13>/Integrator'
+
+ // InitializeConditions for DiscreteIntegrator: '<S14>/Integrator'
+ rtDW.Integrator_IC_LOADING = 1U;
+
+ // End of SystemInitialize for SubSystem: '<S1>/quadcopter_dynamics_prediction'
+ // End of SystemInitialize for SubSystem: '<Root>/Adaptive large angle controller'
+ }
+}
+
+// Constructor
+LAAPModelClass::LAAPModelClass()
+{
+ // Currently there is no constructor body generated.
+}
+
+// Destructor
+LAAPModelClass::~LAAPModelClass()
+{
+ // Currently there is no destructor body generated.
+}
+
+// Root-level input access methods
+
+// Root inport: '<Root>/rdot' set method
+void LAAPModelClass::setrdot(real_T localArgInput[3])
+{
+ rtU.rdot[0] = localArgInput[0];
+ rtU.rdot[1] = localArgInput[1];
+ rtU.rdot[2] = localArgInput[2];
+}
+
+// Root inport: '<Root>/r' set method
+void LAAPModelClass::setr(real_T localArgInput[3])
+{
+ rtU.r[0] = localArgInput[0];
+ rtU.r[1] = localArgInput[1];
+ rtU.r[2] = localArgInput[2];
+}
+
+// Root inport: '<Root>/wb' set method
+void LAAPModelClass::setwb(real_T localArgInput[3])
+{
+ rtU.wb[0] = localArgInput[0];
+ rtU.wb[1] = localArgInput[1];
+ rtU.wb[2] = localArgInput[2];
+}
+
+// Root inport: '<Root>/angles' set method
+void LAAPModelClass::setangles(real_T localArgInput[3])
+{
+ rtU.angles[0] = localArgInput[0];
+ rtU.angles[1] = localArgInput[1];
+ rtU.angles[2] = localArgInput[2];
+}
+
+// Root inport: '<Root>/x' set method
+void LAAPModelClass::setx(real_T localArgInput)
+{
+ rtU.x = localArgInput;
+}
+
+// Root inport: '<Root>/y' set method
+void LAAPModelClass::sety(real_T localArgInput)
+{
+ rtU.y = localArgInput;
+}
+
+// Root inport: '<Root>/z' set method
+void LAAPModelClass::setz(real_T localArgInput)
+{
+ rtU.z = localArgInput;
+}
+
+// Root inport: '<Root>/phi' set method
+void LAAPModelClass::setphi(real_T localArgInput)
+{
+ rtU.phi = localArgInput;
+}
+
+// Root inport: '<Root>/theta' set method
+void LAAPModelClass::settheta(real_T localArgInput)
+{
+ rtU.theta = localArgInput;
+}
+
+// Root inport: '<Root>/psi' set method
+void LAAPModelClass::setpsi(real_T localArgInput)
+{
+ rtU.psi = localArgInput;
+}
+
+// Root-level output access methods
+
+// Root outport: '<Root>/u1 ' get method
+real_T LAAPModelClass::getu1_() const
+{
+ return rtY.u1;
+}
+
+// Root outport: '<Root>/u2 ' get method
+real_T LAAPModelClass::getu2_() const
+{
+ return rtY.u2;
+}
+
+// Root outport: '<Root>/u3' get method
+real_T LAAPModelClass::getu3() const
+{
+ return rtY.u3;
+}
+
+// Root outport: '<Root>/u4' get method
+real_T LAAPModelClass::getu4() const
+{
+ return rtY.u4;
+}
+
+// Real-Time Model get method
+RT_MODEL * LAAPModelClass::getRTM()
+{
+ return (&rtM);
+}
+
+//
+// File trailer for generated code.
+//
+// [EOF]
+//
--- /dev/null Thu Jan 01 00:00:00 1970 +0000
+++ b/LAAP.h Mon Nov 25 10:51:06 2019 +0000
@@ -0,0 +1,514 @@
+//
+// File: LAAP.h
+//
+// Code generated for Simulink model 'LAAP'.
+//
+// Model version : 1.2
+// Simulink Coder version : 9.1 (R2019a) 23-Nov-2018
+// C/C++ source code generated on : Mon Nov 18 17:57:49 2019
+//
+// Target selection: ert.tlc
+// Embedded hardware selection: ARM Compatible->ARM Cortex
+// Code generation objectives:
+// 1. Execution efficiency
+// 2. RAM efficiency
+// Validation result: Not run
+//
+#ifndef RTW_HEADER_LAAP_h_
+#define RTW_HEADER_LAAP_h_
+#include <cmath>
+#include <string.h>
+#ifndef LAAP_COMMON_INCLUDES_
+# define LAAP_COMMON_INCLUDES_
+#include "rtwtypes.h"
+#endif // LAAP_COMMON_INCLUDES_
+
+// Macros for accessing real-time model data structure
+#ifndef rtmGetErrorStatus
+# define rtmGetErrorStatus(rtm) ((rtm)->errorStatus)
+#endif
+
+#ifndef rtmSetErrorStatus
+# define rtmSetErrorStatus(rtm, val) ((rtm)->errorStatus = (val))
+#endif
+
+// Forward declaration for rtModel
+typedef struct tag_RTM RT_MODEL;
+
+// Block signals and states (default storage) for system '<Root>'
+typedef struct {
+ real_T psy[12]; // '<S5>/MATLAB Function3'
+ real_T duty[4]; // '<S5>/MATLAB Function1'
+ real_T Delay_DSTATE[4]; // '<S1>/Delay'
+ real_T Delay_DSTATE_h[3]; // '<S3>/Delay'
+ real_T Delay1_DSTATE_l[3]; // '<S3>/Delay1'
+ real_T Integrator_DSTATE_ep[6]; // '<S13>/Integrator'
+ real_T Integrator_DSTATE_k[6]; // '<S14>/Integrator'
+ real_T Delay_DSTATE_hf[12]; // '<S2>/Delay'
+ real_T F[144];
+ real_T Delay1[12]; // '<S1>/Delay1'
+ real_T rtb_Delay1_m[12];
+ real_T F_c[12];
+ real_T b_I[9];
+ real_T R[9];
+ real_T d[9];
+ real_T dv0[9];
+ real_T b_I_k[9];
+ real_T R_c[9];
+ real_T Integrator[6]; // '<S13>/Integrator'
+ real_T Integrator_p[6]; // '<S14>/Integrator'
+ real_T dv1[6];
+ real_T A[4];
+ real_T a_dotdot[3];
+ real_T Iw_dot[3];
+ real_T w_dot[3];
+ real_T Zbdes[3];
+ real_T Xc[3];
+ real_T crossZX[3];
+ real_T wb[3]; // '<S3>/Euler equations of motion1 '
+ real_T dv2[3];
+ real_T Integrator_DSTATE; // '<S141>/Integrator'
+ real_T Filter_DSTATE; // '<S136>/Filter'
+ real_T Integrator_DSTATE_a; // '<S273>/Integrator'
+ real_T Filter_DSTATE_k; // '<S268>/Filter'
+ real_T Integrator_DSTATE_m; // '<S185>/Integrator'
+ real_T Filter_DSTATE_m; // '<S180>/Filter'
+ real_T Integrator_DSTATE_e; // '<S53>/Integrator'
+ real_T Filter_DSTATE_l; // '<S48>/Filter'
+ real_T Integrator_DSTATE_o; // '<S97>/Integrator'
+ real_T Filter_DSTATE_lo; // '<S92>/Filter'
+ real_T Integrator_DSTATE_ao; // '<S229>/Integrator'
+ real_T Filter_DSTATE_n; // '<S224>/Filter'
+ real_T maxval;
+ real_T Add1_k; // '<S23>/Add1'
+ real_T FilterCoefficient_a; // '<S188>/Filter Coefficient'
+ real_T FilterCoefficient_k; // '<S100>/Filter Coefficient'
+ real_T Add3_a; // '<S22>/Add3'
+ real_T FilterCoefficient_i; // '<S232>/Filter Coefficient'
+ int8_T Integrator_PrevResetState; // '<S13>/Integrator'
+ int8_T Integrator_PrevResetState_n; // '<S14>/Integrator'
+ uint8_T Integrator_IC_LOADING; // '<S14>/Integrator'
+} DW;
+
+// External inputs (root inport signals with default storage)
+typedef struct {
+ real_T rdot[3]; // '<Root>/rdot'
+ real_T r[3]; // '<Root>/r'
+ real_T wb[3]; // '<Root>/wb'
+ real_T angles[3]; // '<Root>/angles'
+ real_T x; // '<Root>/x'
+ real_T y; // '<Root>/y'
+ real_T z; // '<Root>/z'
+ real_T phi; // '<Root>/phi'
+ real_T theta; // '<Root>/theta'
+ real_T psi; // '<Root>/psi'
+} ExtU;
+
+// External outputs (root outports fed by signals with default storage)
+typedef struct {
+ real_T u1; // '<Root>/u1 '
+ real_T u2; // '<Root>/u2 '
+ real_T u3; // '<Root>/u3'
+ real_T u4; // '<Root>/u4'
+} ExtY;
+
+// Real-time Model Data Structure
+struct tag_RTM {
+ const char_T * volatile errorStatus;
+};
+
+// Class declaration for model LAAP
+class LAAPModelClass {
+ // public data and function members
+ public:
+ // model initialize function
+ void initialize();
+
+ // model step function
+ void step();
+
+ // Constructor
+ LAAPModelClass();
+
+ // Destructor
+ ~LAAPModelClass();
+
+ // Root inport: '<Root>/rdot' set method
+ void setrdot(real_T localArgInput[3]);
+
+ // Root inport: '<Root>/r' set method
+ void setr(real_T localArgInput[3]);
+
+ // Root inport: '<Root>/wb' set method
+ void setwb(real_T localArgInput[3]);
+
+ // Root inport: '<Root>/angles' set method
+ void setangles(real_T localArgInput[3]);
+
+ // Root inport: '<Root>/x' set method
+ void setx(real_T localArgInput);
+
+ // Root inport: '<Root>/y' set method
+ void sety(real_T localArgInput);
+
+ // Root inport: '<Root>/z' set method
+ void setz(real_T localArgInput);
+
+ // Root inport: '<Root>/phi' set method
+ void setphi(real_T localArgInput);
+
+ // Root inport: '<Root>/theta' set method
+ void settheta(real_T localArgInput);
+
+ // Root inport: '<Root>/psi' set method
+ void setpsi(real_T localArgInput);
+
+ // Root outport: '<Root>/u1 ' get method
+ real_T getu1_() const;
+
+ // Root outport: '<Root>/u2 ' get method
+ real_T getu2_() const;
+
+ // Root outport: '<Root>/u3' get method
+ real_T getu3() const;
+
+ // Root outport: '<Root>/u4' get method
+ real_T getu4() const;
+
+ // Real-Time Model get method
+ RT_MODEL * getRTM();
+
+ // protected data and function members
+ protected:
+ // External inputs
+ ExtU rtU;
+
+ // External outputs
+ ExtY rtY;
+
+ // private data and function members
+ private:
+ // Block signals and states
+ DW rtDW;
+
+ // Real-Time Model
+ RT_MODEL rtM;
+};
+
+//-
+// These blocks were eliminated from the model due to optimizations:
+//
+// Block '<S13>/Saturation' : Eliminated Saturate block
+// Block '<S14>/Saturation' : Eliminated Saturate block
+
+
+//-
+// The generated code includes comments that allow you to trace directly
+// back to the appropriate location in the model. The basic format
+// is <system>/block_name, where system is the system number (uniquely
+// assigned by Simulink) and block_name is the name of the block.
+//
+// Use the MATLAB hilite_system command to trace the generated code back
+// to the model. For example,
+//
+// hilite_system('<S3>') - opens system 3
+// hilite_system('<S3>/Kp') - opens and selects block Kp which resides in S3
+//
+// Here is the system hierarchy for this model
+//
+// '<Root>' : 'LAAP'
+// '<S1>' : 'LAAP/Adaptive large angle controller'
+// '<S2>' : 'LAAP/Adaptive large angle controller/largepaa'
+// '<S3>' : 'LAAP/Adaptive large angle controller/quadcopter_dynamics_prediction'
+// '<S4>' : 'LAAP/Adaptive large angle controller/small_angle_control'
+// '<S5>' : 'LAAP/Adaptive large angle controller/largepaa/large_controller'
+// '<S6>' : 'LAAP/Adaptive large angle controller/largepaa/parameter_adaptation_algorithm'
+// '<S7>' : 'LAAP/Adaptive large angle controller/largepaa/large_controller/MATLAB Function1'
+// '<S8>' : 'LAAP/Adaptive large angle controller/largepaa/large_controller/MATLAB Function3'
+// '<S9>' : 'LAAP/Adaptive large angle controller/largepaa/parameter_adaptation_algorithm/MATLAB Function3'
+// '<S10>' : 'LAAP/Adaptive large angle controller/quadcopter_dynamics_prediction/Euler equations of motion1 '
+// '<S11>' : 'LAAP/Adaptive large angle controller/quadcopter_dynamics_prediction/Integrator (Discrete or Continuous)'
+// '<S12>' : 'LAAP/Adaptive large angle controller/quadcopter_dynamics_prediction/Integrator (Discrete or Continuous)1'
+// '<S13>' : 'LAAP/Adaptive large angle controller/quadcopter_dynamics_prediction/Integrator (Discrete or Continuous)/Discrete'
+// '<S14>' : 'LAAP/Adaptive large angle controller/quadcopter_dynamics_prediction/Integrator (Discrete or Continuous)1/Discrete'
+// '<S15>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1'
+// '<S16>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2'
+// '<S17>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3'
+// '<S18>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4'
+// '<S19>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5'
+// '<S20>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6'
+// '<S21>' : 'LAAP/Adaptive large angle controller/small_angle_control/MATLAB Function4'
+// '<S22>' : 'LAAP/Adaptive large angle controller/small_angle_control/Subsystem'
+// '<S23>' : 'LAAP/Adaptive large angle controller/small_angle_control/Subsystem1'
+// '<S24>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Anti-windup'
+// '<S25>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/D Gain'
+// '<S26>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Filter'
+// '<S27>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Filter ICs'
+// '<S28>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/I Gain'
+// '<S29>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Ideal P Gain'
+// '<S30>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Ideal P Gain Fdbk'
+// '<S31>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Integrator'
+// '<S32>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Integrator ICs'
+// '<S33>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/N Copy'
+// '<S34>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/N Gain'
+// '<S35>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/P Copy'
+// '<S36>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Parallel P Gain'
+// '<S37>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Reset Signal'
+// '<S38>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Saturation'
+// '<S39>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Saturation Fdbk'
+// '<S40>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Sum'
+// '<S41>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Sum Fdbk'
+// '<S42>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Tracking Mode'
+// '<S43>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Tracking Mode Sum'
+// '<S44>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/postSat Signal'
+// '<S45>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/preSat Signal'
+// '<S46>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Anti-windup/Passthrough'
+// '<S47>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/D Gain/Internal Parameters'
+// '<S48>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Filter/Disc. Forward Euler Filter'
+// '<S49>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Filter ICs/Internal IC - Filter'
+// '<S50>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/I Gain/Internal Parameters'
+// '<S51>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Ideal P Gain/Passthrough'
+// '<S52>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Ideal P Gain Fdbk/Disabled'
+// '<S53>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Integrator/Discrete'
+// '<S54>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Integrator ICs/Internal IC'
+// '<S55>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/N Copy/Disabled'
+// '<S56>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/N Gain/Internal Parameters'
+// '<S57>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/P Copy/Disabled'
+// '<S58>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Parallel P Gain/Internal Parameters'
+// '<S59>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Reset Signal/Disabled'
+// '<S60>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Saturation/Passthrough'
+// '<S61>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Saturation Fdbk/Disabled'
+// '<S62>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Sum/Sum_PID'
+// '<S63>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Sum Fdbk/Disabled'
+// '<S64>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Tracking Mode/Disabled'
+// '<S65>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/Tracking Mode Sum/Passthrough'
+// '<S66>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/postSat Signal/Forward_Path'
+// '<S67>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller1/preSat Signal/Forward_Path'
+// '<S68>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Anti-windup'
+// '<S69>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/D Gain'
+// '<S70>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Filter'
+// '<S71>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Filter ICs'
+// '<S72>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/I Gain'
+// '<S73>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Ideal P Gain'
+// '<S74>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Ideal P Gain Fdbk'
+// '<S75>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Integrator'
+// '<S76>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Integrator ICs'
+// '<S77>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/N Copy'
+// '<S78>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/N Gain'
+// '<S79>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/P Copy'
+// '<S80>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Parallel P Gain'
+// '<S81>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Reset Signal'
+// '<S82>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Saturation'
+// '<S83>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Saturation Fdbk'
+// '<S84>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Sum'
+// '<S85>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Sum Fdbk'
+// '<S86>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Tracking Mode'
+// '<S87>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Tracking Mode Sum'
+// '<S88>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/postSat Signal'
+// '<S89>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/preSat Signal'
+// '<S90>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Anti-windup/Passthrough'
+// '<S91>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/D Gain/Internal Parameters'
+// '<S92>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Filter/Disc. Forward Euler Filter'
+// '<S93>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Filter ICs/Internal IC - Filter'
+// '<S94>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/I Gain/Internal Parameters'
+// '<S95>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Ideal P Gain/Passthrough'
+// '<S96>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Ideal P Gain Fdbk/Disabled'
+// '<S97>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Integrator/Discrete'
+// '<S98>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Integrator ICs/Internal IC'
+// '<S99>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/N Copy/Disabled'
+// '<S100>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/N Gain/Internal Parameters'
+// '<S101>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/P Copy/Disabled'
+// '<S102>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Parallel P Gain/Internal Parameters'
+// '<S103>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Reset Signal/Disabled'
+// '<S104>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Saturation/Passthrough'
+// '<S105>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Saturation Fdbk/Disabled'
+// '<S106>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Sum/Sum_PID'
+// '<S107>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Sum Fdbk/Disabled'
+// '<S108>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Tracking Mode/Disabled'
+// '<S109>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/Tracking Mode Sum/Passthrough'
+// '<S110>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/postSat Signal/Forward_Path'
+// '<S111>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller2/preSat Signal/Forward_Path'
+// '<S112>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Anti-windup'
+// '<S113>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/D Gain'
+// '<S114>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Filter'
+// '<S115>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Filter ICs'
+// '<S116>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/I Gain'
+// '<S117>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Ideal P Gain'
+// '<S118>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Ideal P Gain Fdbk'
+// '<S119>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Integrator'
+// '<S120>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Integrator ICs'
+// '<S121>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/N Copy'
+// '<S122>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/N Gain'
+// '<S123>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/P Copy'
+// '<S124>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Parallel P Gain'
+// '<S125>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Reset Signal'
+// '<S126>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Saturation'
+// '<S127>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Saturation Fdbk'
+// '<S128>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Sum'
+// '<S129>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Sum Fdbk'
+// '<S130>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Tracking Mode'
+// '<S131>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Tracking Mode Sum'
+// '<S132>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/postSat Signal'
+// '<S133>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/preSat Signal'
+// '<S134>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Anti-windup/Passthrough'
+// '<S135>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/D Gain/Internal Parameters'
+// '<S136>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Filter/Disc. Forward Euler Filter'
+// '<S137>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Filter ICs/Internal IC - Filter'
+// '<S138>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/I Gain/Internal Parameters'
+// '<S139>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Ideal P Gain/Passthrough'
+// '<S140>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Ideal P Gain Fdbk/Disabled'
+// '<S141>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Integrator/Discrete'
+// '<S142>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Integrator ICs/Internal IC'
+// '<S143>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/N Copy/Disabled'
+// '<S144>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/N Gain/Internal Parameters'
+// '<S145>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/P Copy/Disabled'
+// '<S146>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Parallel P Gain/Internal Parameters'
+// '<S147>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Reset Signal/Disabled'
+// '<S148>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Saturation/Passthrough'
+// '<S149>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Saturation Fdbk/Disabled'
+// '<S150>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Sum/Sum_PID'
+// '<S151>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Sum Fdbk/Disabled'
+// '<S152>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Tracking Mode/Disabled'
+// '<S153>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/Tracking Mode Sum/Passthrough'
+// '<S154>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/postSat Signal/Forward_Path'
+// '<S155>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller3/preSat Signal/Forward_Path'
+// '<S156>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Anti-windup'
+// '<S157>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/D Gain'
+// '<S158>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Filter'
+// '<S159>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Filter ICs'
+// '<S160>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/I Gain'
+// '<S161>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Ideal P Gain'
+// '<S162>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Ideal P Gain Fdbk'
+// '<S163>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Integrator'
+// '<S164>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Integrator ICs'
+// '<S165>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/N Copy'
+// '<S166>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/N Gain'
+// '<S167>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/P Copy'
+// '<S168>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Parallel P Gain'
+// '<S169>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Reset Signal'
+// '<S170>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Saturation'
+// '<S171>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Saturation Fdbk'
+// '<S172>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Sum'
+// '<S173>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Sum Fdbk'
+// '<S174>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Tracking Mode'
+// '<S175>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Tracking Mode Sum'
+// '<S176>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/postSat Signal'
+// '<S177>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/preSat Signal'
+// '<S178>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Anti-windup/Passthrough'
+// '<S179>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/D Gain/Internal Parameters'
+// '<S180>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Filter/Disc. Forward Euler Filter'
+// '<S181>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Filter ICs/Internal IC - Filter'
+// '<S182>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/I Gain/Internal Parameters'
+// '<S183>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Ideal P Gain/Passthrough'
+// '<S184>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Ideal P Gain Fdbk/Disabled'
+// '<S185>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Integrator/Discrete'
+// '<S186>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Integrator ICs/Internal IC'
+// '<S187>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/N Copy/Disabled'
+// '<S188>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/N Gain/Internal Parameters'
+// '<S189>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/P Copy/Disabled'
+// '<S190>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Parallel P Gain/Internal Parameters'
+// '<S191>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Reset Signal/Disabled'
+// '<S192>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Saturation/Passthrough'
+// '<S193>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Saturation Fdbk/Disabled'
+// '<S194>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Sum/Sum_PID'
+// '<S195>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Sum Fdbk/Disabled'
+// '<S196>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Tracking Mode/Disabled'
+// '<S197>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/Tracking Mode Sum/Passthrough'
+// '<S198>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/postSat Signal/Forward_Path'
+// '<S199>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller4/preSat Signal/Forward_Path'
+// '<S200>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Anti-windup'
+// '<S201>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/D Gain'
+// '<S202>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Filter'
+// '<S203>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Filter ICs'
+// '<S204>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/I Gain'
+// '<S205>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Ideal P Gain'
+// '<S206>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Ideal P Gain Fdbk'
+// '<S207>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Integrator'
+// '<S208>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Integrator ICs'
+// '<S209>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/N Copy'
+// '<S210>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/N Gain'
+// '<S211>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/P Copy'
+// '<S212>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Parallel P Gain'
+// '<S213>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Reset Signal'
+// '<S214>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Saturation'
+// '<S215>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Saturation Fdbk'
+// '<S216>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Sum'
+// '<S217>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Sum Fdbk'
+// '<S218>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Tracking Mode'
+// '<S219>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Tracking Mode Sum'
+// '<S220>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/postSat Signal'
+// '<S221>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/preSat Signal'
+// '<S222>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Anti-windup/Passthrough'
+// '<S223>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/D Gain/Internal Parameters'
+// '<S224>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Filter/Disc. Forward Euler Filter'
+// '<S225>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Filter ICs/Internal IC - Filter'
+// '<S226>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/I Gain/Internal Parameters'
+// '<S227>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Ideal P Gain/Passthrough'
+// '<S228>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Ideal P Gain Fdbk/Disabled'
+// '<S229>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Integrator/Discrete'
+// '<S230>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Integrator ICs/Internal IC'
+// '<S231>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/N Copy/Disabled'
+// '<S232>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/N Gain/Internal Parameters'
+// '<S233>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/P Copy/Disabled'
+// '<S234>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Parallel P Gain/Internal Parameters'
+// '<S235>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Reset Signal/Disabled'
+// '<S236>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Saturation/Passthrough'
+// '<S237>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Saturation Fdbk/Disabled'
+// '<S238>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Sum/Sum_PID'
+// '<S239>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Sum Fdbk/Disabled'
+// '<S240>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Tracking Mode/Disabled'
+// '<S241>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/Tracking Mode Sum/Passthrough'
+// '<S242>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/postSat Signal/Forward_Path'
+// '<S243>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller5/preSat Signal/Forward_Path'
+// '<S244>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Anti-windup'
+// '<S245>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/D Gain'
+// '<S246>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Filter'
+// '<S247>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Filter ICs'
+// '<S248>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/I Gain'
+// '<S249>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Ideal P Gain'
+// '<S250>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Ideal P Gain Fdbk'
+// '<S251>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Integrator'
+// '<S252>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Integrator ICs'
+// '<S253>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/N Copy'
+// '<S254>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/N Gain'
+// '<S255>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/P Copy'
+// '<S256>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Parallel P Gain'
+// '<S257>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Reset Signal'
+// '<S258>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Saturation'
+// '<S259>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Saturation Fdbk'
+// '<S260>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Sum'
+// '<S261>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Sum Fdbk'
+// '<S262>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Tracking Mode'
+// '<S263>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Tracking Mode Sum'
+// '<S264>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/postSat Signal'
+// '<S265>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/preSat Signal'
+// '<S266>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Anti-windup/Passthrough'
+// '<S267>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/D Gain/Internal Parameters'
+// '<S268>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Filter/Disc. Forward Euler Filter'
+// '<S269>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Filter ICs/Internal IC - Filter'
+// '<S270>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/I Gain/Internal Parameters'
+// '<S271>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Ideal P Gain/Passthrough'
+// '<S272>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Ideal P Gain Fdbk/Disabled'
+// '<S273>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Integrator/Discrete'
+// '<S274>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Integrator ICs/Internal IC'
+// '<S275>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/N Copy/Disabled'
+// '<S276>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/N Gain/Internal Parameters'
+// '<S277>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/P Copy/Disabled'
+// '<S278>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Parallel P Gain/Internal Parameters'
+// '<S279>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Reset Signal/Disabled'
+// '<S280>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Saturation/Passthrough'
+// '<S281>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Saturation Fdbk/Disabled'
+// '<S282>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Sum/Sum_PID'
+// '<S283>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Sum Fdbk/Disabled'
+// '<S284>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Tracking Mode/Disabled'
+// '<S285>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/Tracking Mode Sum/Passthrough'
+// '<S286>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/postSat Signal/Forward_Path'
+// '<S287>' : 'LAAP/Adaptive large angle controller/small_angle_control/Discrete PID Controller6/preSat Signal/Forward_Path'
+
+#endif // RTW_HEADER_LAAP_h_
+
+//
+// File trailer for generated code.
+//
+// [EOF]
+//
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/rtwtypes.h Mon Nov 25 10:51:06 2019 +0000 @@ -0,0 +1,102 @@ +// +// File: rtwtypes.h +// +// Code generated for Simulink model 'LAAP'. +// +// Model version : 1.2 +// Simulink Coder version : 9.1 (R2019a) 23-Nov-2018 +// C/C++ source code generated on : Mon Nov 18 17:57:49 2019 +// +// Target selection: ert.tlc +// Embedded hardware selection: ARM Compatible->ARM Cortex +// Code generation objectives: +// 1. Execution efficiency +// 2. RAM efficiency +// Validation result: Not run +// + +#ifndef RTWTYPES_H +#define RTWTYPES_H + +// Logical type definitions +#if (!defined(__cplusplus)) +# ifndef false +# define false (0U) +# endif + +# ifndef true +# define true (1U) +# endif +#endif + +//=======================================================================* +// Target hardware information +// Device type: ARM Compatible->ARM Cortex +// Number of bits: char: 8 short: 16 int: 32 +// long: 32 long long: 64 +// native word size: 32 +// Byte ordering: LittleEndian +// Signed integer division rounds to: Zero +// Shift right on a signed integer as arithmetic shift: on +// ======================================================================= + +//=======================================================================* +// Fixed width word size data types: * +// int8_T, int16_T, int32_T - signed 8, 16, or 32 bit integers * +// uint8_T, uint16_T, uint32_T - unsigned 8, 16, or 32 bit integers * +// real32_T, real64_T - 32 and 64 bit floating point numbers * +// ======================================================================= +typedef signed char int8_T; +typedef unsigned char uint8_T; +typedef short int16_T; +typedef unsigned short uint16_T; +typedef int int32_T; +typedef unsigned int uint32_T; +typedef long long int64_T; +typedef unsigned long long uint64_T; +typedef float real32_T; +typedef double real64_T; + +//===========================================================================* +// Generic type definitions: boolean_T, char_T, byte_T, int_T, uint_T, * +// real_T, time_T, ulong_T, ulonglong_T. * +// =========================================================================== +typedef double real_T; +typedef double time_T; +typedef unsigned char boolean_T; +typedef int int_T; +typedef unsigned int uint_T; +typedef unsigned long ulong_T; +typedef unsigned long long ulonglong_T; +typedef char char_T; +typedef unsigned char uchar_T; +typedef char_T byte_T; + +//=======================================================================* +// Min and Max: * +// int8_T, int16_T, int32_T - signed 8, 16, or 32 bit integers * +// uint8_T, uint16_T, uint32_T - unsigned 8, 16, or 32 bit integers * +// ======================================================================= +#define MAX_int8_T ((int8_T)(127)) +#define MIN_int8_T ((int8_T)(-128)) +#define MAX_uint8_T ((uint8_T)(255U)) +#define MAX_int16_T ((int16_T)(32767)) +#define MIN_int16_T ((int16_T)(-32768)) +#define MAX_uint16_T ((uint16_T)(65535U)) +#define MAX_int32_T ((int32_T)(2147483647)) +#define MIN_int32_T ((int32_T)(-2147483647-1)) +#define MAX_uint32_T ((uint32_T)(0xFFFFFFFFU)) +#define MAX_int64_T ((int64_T)(9223372036854775807LL)) +#define MIN_int64_T ((int64_T)(-9223372036854775807LL-1LL)) +#define MAX_uint64_T ((uint64_T)(0xFFFFFFFFFFFFFFFFULL)) + +// Block D-Work pointer type +typedef void * pointer_T; + +#endif // RTWTYPES_H + +// +// File trailer for generated code. +// +// [EOF] +//