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【编译通过】增加自动模式下的PID纠偏

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Lizongdi 1 month ago
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4 changed files with 200 additions and 453 deletions
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  1. 4
      diaoerqiege/BHBF_Robot_Lifting_Lug/.settings/language.settings.xml
  2. 35
      diaoerqiege/BHBF_Robot_Lifting_Lug/Core/BASE/Inc/MSP/msp_PID.h
  3. 554
      diaoerqiege/BHBF_Robot_Lifting_Lug/Core/BASE/Src/MSP/msp_PID.c
  4. 24
      diaoerqiege/BHBF_Robot_Lifting_Lug/Core/Src/robot_state.c

4
diaoerqiege/BHBF_Robot_Lifting_Lug/.settings/language.settings.xml
View File

@ -5,7 +5,7 @@
<provider copy-of="extension" id="org.eclipse.cdt.ui.UserLanguageSettingsProvider"/>
<provider-reference id="org.eclipse.cdt.core.ReferencedProjectsLanguageSettingsProvider" ref="shared-provider"/>
<provider-reference id="org.eclipse.cdt.managedbuilder.core.MBSLanguageSettingsProvider" ref="shared-provider"/>
<provider class="com.st.stm32cube.ide.mcu.toolchain.armnone.setup.CrossBuiltinSpecsDetector" console="false" env-hash="-1256539702914033922" id="com.st.stm32cube.ide.mcu.toolchain.armnone.setup.CrossBuiltinSpecsDetector" keep-relative-paths="false" name="MCU ARM GCC Built-in Compiler Settings" parameter="${COMMAND} ${FLAGS} -E -P -v -dD &quot;${INPUTS}&quot;" prefer-non-shared="true">
<provider class="com.st.stm32cube.ide.mcu.toolchain.armnone.setup.CrossBuiltinSpecsDetector" console="false" env-hash="-63235014752314356" id="com.st.stm32cube.ide.mcu.toolchain.armnone.setup.CrossBuiltinSpecsDetector" keep-relative-paths="false" name="MCU ARM GCC Built-in Compiler Settings" parameter="${COMMAND} ${FLAGS} -E -P -v -dD &quot;${INPUTS}&quot;" prefer-non-shared="true">
<language-scope id="org.eclipse.cdt.core.gcc"/>
<language-scope id="org.eclipse.cdt.core.g++"/>
</provider>
@ -16,7 +16,7 @@
<provider copy-of="extension" id="org.eclipse.cdt.ui.UserLanguageSettingsProvider"/>
<provider-reference id="org.eclipse.cdt.core.ReferencedProjectsLanguageSettingsProvider" ref="shared-provider"/>
<provider-reference id="org.eclipse.cdt.managedbuilder.core.MBSLanguageSettingsProvider" ref="shared-provider"/>
<provider class="com.st.stm32cube.ide.mcu.toolchain.armnone.setup.CrossBuiltinSpecsDetector" console="false" env-hash="-1256539702914033922" id="com.st.stm32cube.ide.mcu.toolchain.armnone.setup.CrossBuiltinSpecsDetector" keep-relative-paths="false" name="MCU ARM GCC Built-in Compiler Settings" parameter="${COMMAND} ${FLAGS} -E -P -v -dD &quot;${INPUTS}&quot;" prefer-non-shared="true">
<provider class="com.st.stm32cube.ide.mcu.toolchain.armnone.setup.CrossBuiltinSpecsDetector" console="false" env-hash="-63235014752314356" id="com.st.stm32cube.ide.mcu.toolchain.armnone.setup.CrossBuiltinSpecsDetector" keep-relative-paths="false" name="MCU ARM GCC Built-in Compiler Settings" parameter="${COMMAND} ${FLAGS} -E -P -v -dD &quot;${INPUTS}&quot;" prefer-non-shared="true">
<language-scope id="org.eclipse.cdt.core.gcc"/>
<language-scope id="org.eclipse.cdt.core.g++"/>
</provider>

35
diaoerqiege/BHBF_Robot_Lifting_Lug/Core/BASE/Inc/MSP/msp_PID.h
View File

@ -1,27 +1,20 @@
/*
* msp_PID.h
*
* Created on: 2024年1月22日
* Author: Administrator
* msp_PID.h - 两轮差速机器人角度追踪PID（内置参数，数组输出）
*/
#ifndef INC_MSP_MSP_PID_H_
#define INC_MSP_MSP_PID_H_
/**
* @brief 两轮差速角度控制（内置 dt=0.1s，最大速度 = 1.6 * |base_speed|）
* @param current_angle 当前角度（度）
* @param desired_angle 期望角度（度）
* @param base_speed 基础前进速度（可正可负）
* @param speeds 输出速度数组，speeds[0]=左轮，speeds[1]=右轮
*/
void TwoWheel_AngleControl(float current_angle, float desired_angle,
float base_speed,float zoom, float speeds[2]);
void TwoWheel_AngleControl_Weld(float current_angle, float desired_angle,
float base_speed,float zoom, float speeds[2]);
#include "bsp_include.h"
void GF_MSP_Auto_Motion_adj(double Current_Angle, double Auto_Speed, double Auto_Speed_Max, double System_time ,double *W_Speed_1);
void GF_MSP_Auto_adj_Unicycle(double Current_Angle_11,double Desire_Angle_11, double Auto_Speed, double Auto_Speed_Max, double System_time ,double *W_Speed_1);
void GF_MSP_Auto_Motion_adj_Com(double Current_Angle, double Horizontal_Compen_Angle ,double Auto_Speed, double Auto_Speed_Max, double System_time ,double *W_Speed_1);
void GF_MSP_PID_Now_Der_adj_Com(double Current_Angle,double Desire_Angle_Input, double Auto_Speed, double Auto_Speed_Max, double System_time ,double *W_Speed_1);
int Angle_Tune_PID(float CurrentAngle, float TargetAngle, int Position_KP,
int Position_KI, int Position_KD, int MaxValue);
#endif /* INC_MSP_MSP_PID_H_ */
#endif

554
diaoerqiege/BHBF_Robot_Lifting_Lug/Core/BASE/Src/MSP/msp_PID.c
View File

@ -1,350 +1,151 @@
/*
* msp_PID.c
*
* Created on: 2024年1月18日
* Author: Administrator
* msp_PID.c - 两轮差速机器人角度追踪PID（内置参数，数组输出，float版本）
*/
#include "msp_PID.h"
#include <math.h>
void Speedl_PID(double CurrentValue, double TargetValue, double Sys_T,
#include <float.h>
// ========== 内置固定参数 ==========
#define CONTROL_DT 0.1f // 固定采样时间 0.1秒
#define MAX_SPEED_FACTOR 1.6f // 最大速度 = 基础速度 * 1.6
// ========== 全局可调参数 ==========
float PID_KP = 0.5f; // 比例系数
float PID_KD = 0.012f; // 微分系数
float PID_KP_WELD = 0.1f; // 比例系数
float PID_KD_WELD = 0.025f; // 微分系数
float Kp1 = 1.0f; // 小角度增益因子
float Kp2 = 0.95f; // 中小角度增益因子
float Kp3 = 0.80f; // 中大角度增益因子
float Kp4 = 0.50f; // 大角度增益因子
double Desire_Angle = 0; //用于焊缝跟踪的期望角度
// 误差分段阈值（度）
static const float ANGLE_THRESHOLD1 = 2.0f;
static const float ANGLE_THRESHOLD2 = 5.0f;
static const float ANGLE_THRESHOLD3 = 10.0f;
// ========== 内部静态变量 ==========
static float last_error = 0.0f; // 上一次误差（用于微分）
// ========== 内部函数声明 ==========
static float normalize_angle(float angle);
static float compute_pd_output(float error,float KP,float KD);
static float get_gain_factor(float abs_error);
void Weld_PID(double CurrentValue, double TargetValue, double Sys_T,
double *Gain_speed);
double Desire_Angle = 0;
double PID_KP = 50;
double PID_KD = 12;
//double Sys_T=0.01;//System time
double k_1_error = 0;
void Speedl_PID(double CurrentValue, double TargetValue, double Sys_T,
double *Gain_speed)
{
double Error;
double P_Error;
double D_Error;
Error = TargetValue - CurrentValue;
if (Error >= 180)
{
Error = Error - 360;
}
else if (Error <= -180)
{
Error = Error + 360;
}
P_Error = Error;
D_Error = Error - k_1_error;
k_1_error = Error;
Gain_speed[0] = PID_KP * P_Error + PID_KD * D_Error / Sys_T;
}
void GF_MSP_PID_Now_Der_adj_Com_Weld(double Current_Angle, double Desire_Angle_Input,
double Auto_Speed, double Auto_Speed_Max, double System_time, double *W_Speed_1);
double Kp1 = 1;
double Kp2 = 0.950;
double Kp3 = 0.80;
double Kp4 = 0.50;
/* Input:
*/
//void GF_MSP_Auto_Motion_adj(double Current_Angle, double Auto_Speed, double Auto_Speed_Max, double System_time ,double *W_Speed_1)
void GF_MSP_Auto_Motion_adj(double Current_Angle, double Auto_Speed,
double Auto_Speed_Max, double System_time, double *W_Speed_1)
{
// double Desire_Angle=0;
//double Horizontal_Compen_Angle=0;,
double Horizontal_Compen_Angle = 0;
if ((Current_Angle >= 45) & (Current_Angle < 135))
{
Desire_Angle = 90 + Horizontal_Compen_Angle;
}
else if ((Current_Angle <= -45) & (Current_Angle >= -135))
{
Desire_Angle = -90 + Horizontal_Compen_Angle;
}
else if ((Current_Angle > -45) & (Current_Angle < 45))
{
Desire_Angle = 0 + Horizontal_Compen_Angle;
}
else
{
Desire_Angle = 180 + Horizontal_Compen_Angle;
}
//水平 前进抬车头
double Detal_Angle = fabs(Current_Angle - Desire_Angle);
double Incre_Speed[1];
Speedl_PID(Current_Angle, Desire_Angle, System_time, Incre_Speed);
Incre_Speed[0] = 1 * Incre_Speed[0];
double deltaAngle1 = 2;
double deltaAngle2 = 5;
double deltaAngle3 = 10;
//double deltaAngle4=25;
double LeftSpeed_Con_1;
double RightSpeed_Con_1;
double LeftSpeed_Con_2;
double RightSpeed_Con_2;
if (Detal_Angle <= deltaAngle1)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp1 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp1 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp1 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp1 * Incre_Speed[0];
//小角度时，两前轮调整
}
else if (Detal_Angle > deltaAngle1 && Detal_Angle <= deltaAngle2)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp2 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp2 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp2 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp2 * Incre_Speed[0];
//中小角度时，两前轮差速，两后轮跟踪调整
}
else if (Detal_Angle > deltaAngle2 && Detal_Angle <= deltaAngle3)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp3 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp3 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp3 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp3 * Incre_Speed[0];
}
else
{
LeftSpeed_Con_1 = (Auto_Speed + Kp4 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp4 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp4 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp4 * Incre_Speed[0];
}
// ========== 函数实现 ==========
double Jud_value = fabs(LeftSpeed_Con_1) - fabs(RightSpeed_Con_1);
double factor = 0;
if (Jud_value >= 0)
{
if (LeftSpeed_Con_1 > Auto_Speed_Max)
/* 将角度归一化到 [-180, 180) */
static float normalize_angle(float angle)
{
factor = Auto_Speed_Max / LeftSpeed_Con_1;
LeftSpeed_Con_1 = Auto_Speed_Max;
LeftSpeed_Con_2 = LeftSpeed_Con_2 * factor;
RightSpeed_Con_1 = RightSpeed_Con_1 * factor;
RightSpeed_Con_2 = RightSpeed_Con_2 * factor;
while (angle >= 180.0f) angle -= 360.0f;
while (angle < -180.0f) angle += 360.0f;
return angle;
}
else if (LeftSpeed_Con_1 < -Auto_Speed_Max)
/* PD控制器：输入误差，输出控制增量（使用固定 dt = CONTROL_DT） */
static float compute_pd_output(float error,float KP,float KD)
{
factor = -Auto_Speed_Max / LeftSpeed_Con_1;
LeftSpeed_Con_1 = -Auto_Speed_Max;
LeftSpeed_Con_2 = LeftSpeed_Con_2 * factor;
RightSpeed_Con_1 = RightSpeed_Con_1 * factor;
RightSpeed_Con_2 = RightSpeed_Con_2 * factor;
float p_term = KP * error;
float d_term = KD * (error - last_error) / CONTROL_DT;
last_error = error;
return p_term + d_term;
}
}
else
{
if (RightSpeed_Con_1 > Auto_Speed_Max)
{
factor = Auto_Speed_Max / RightSpeed_Con_1;
RightSpeed_Con_1 = Auto_Speed_Max;
RightSpeed_Con_2 = RightSpeed_Con_2 * factor;
LeftSpeed_Con_1 = LeftSpeed_Con_1 * factor;
LeftSpeed_Con_2 = LeftSpeed_Con_2 * factor;
}
else if (LeftSpeed_Con_2 < -Auto_Speed_Max)
/* 根据误差绝对值选择增益因子 */
static float get_gain_factor(float abs_error)
{
factor = -Auto_Speed_Max / RightSpeed_Con_1;
RightSpeed_Con_1 = -Auto_Speed_Max;
RightSpeed_Con_2 = RightSpeed_Con_2 * factor;
LeftSpeed_Con_1 = LeftSpeed_Con_1 * factor;
LeftSpeed_Con_2 = LeftSpeed_Con_2 * factor;
}
if (abs_error <= ANGLE_THRESHOLD1) return Kp1;
if (abs_error <= ANGLE_THRESHOLD2) return Kp2;
if (abs_error <= ANGLE_THRESHOLD3) return Kp3;
return Kp4;
}
W_Speed_1[0] = LeftSpeed_Con_1;
W_Speed_1[1] = RightSpeed_Con_1;
W_Speed_1[2] = LeftSpeed_Con_2;
W_Speed_1[3] = RightSpeed_Con_2;
/* 两轮差速角度控制（对外接口） */
void TwoWheel_AngleControl(float current_angle, float desired_angle,
float base_speed,float zoom, float speeds[2])
{
// 1. 计算归一化误差
float raw_error = desired_angle - current_angle;
float error = normalize_angle(raw_error);
float abs_error = fabsf(error);
}
// 2. PD控制量
float delta = zoom*compute_pd_output(error,PID_KP,PID_KD);
void GF_MSP_Auto_adj_Unicycle(double Current_Angle_11, double Desire_Angle_11,
double Auto_Speed, double Auto_Speed_Max, double System_time,
double *W_Speed_1)
{
//水平 前进抬车头
double Detal_Angle = fabs(Current_Angle_11 - Desire_Angle_11);
double Incre_Speed[1];
// 3. 根据误差大小选择增益因子
float factor = get_gain_factor(abs_error);
Speedl_PID(Current_Angle_11, Desire_Angle_11, System_time, Incre_Speed);
Incre_Speed[0] = 1 * Incre_Speed[0];
// 4. 计算左右轮速度
float left = base_speed + factor * delta;
float right = base_speed - factor * delta;
double deltaAngle0 = 1;
double deltaAngle1 = 2;
double deltaAngle2 = 5;
double deltaAngle3 = 10;
//double deltaAngle4=25;
double LeftSpeed_Con_1;
// 5. 内置最大速度 = 1.6 * |base_speed|
float max_speed = fabsf(base_speed) * MAX_SPEED_FACTOR;
if (Detal_Angle <= deltaAngle0)
{
LeftSpeed_Con_1 = 0;
}
else if (Detal_Angle <= deltaAngle1)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp1 * Incre_Speed[0] / 2);
}
else if (Detal_Angle > deltaAngle1 && Detal_Angle <= deltaAngle2)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp2 * Incre_Speed[0] / 2);
}
else if (Detal_Angle > deltaAngle2 && Detal_Angle <= deltaAngle3)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp3 * Incre_Speed[0] / 2);
}
else
{
LeftSpeed_Con_1 = (Auto_Speed + Kp4 * Incre_Speed[0] / 2);
// 6. 限幅：等比缩放至最大速度以内
float max_abs = fmaxf(fabsf(left), fabsf(right));
if (max_abs > max_speed && max_abs > FLT_MIN) {
float scale = max_speed / max_abs;
left *= scale;
right *= scale;
}
if (LeftSpeed_Con_1 > Auto_Speed_Max)
{
LeftSpeed_Con_1 = Auto_Speed_Max;
}
else if (LeftSpeed_Con_1 < -Auto_Speed_Max)
{
LeftSpeed_Con_1 = -Auto_Speed_Max;
}
else
{
//LeftSpeed_Con_1=LeftSpeed_Con_1;
}
W_Speed_1[0] = LeftSpeed_Con_1;
speeds[0] = left;
speeds[1] = right;
}
void GF_MSP_Auto_Motion_adj_Com(double Current_Angle,
double Horizontal_Compen_Angle, double Auto_Speed,
double Auto_Speed_Max, double System_time, double *W_Speed_1)
{
// double Desire_Angle=0;
//double Horizontal_Compen_Angle=0;
if ((Current_Angle >= 45) & (Current_Angle < 135))
{
Desire_Angle = 90 + Horizontal_Compen_Angle;
}
else if ((Current_Angle <= -45) & (Current_Angle >= -135))
{
Desire_Angle = -90 + Horizontal_Compen_Angle;
}
else if ((Current_Angle > -45) & (Current_Angle < 45))
{
Desire_Angle = 0 + Horizontal_Compen_Angle;
}
else
{
Desire_Angle = 180 + Horizontal_Compen_Angle;
if (Desire_Angle > 180)
{
Desire_Angle = Desire_Angle - 360;
}
}
//水平 前进抬车头
double Detal_Angle = fabs(Current_Angle - Desire_Angle);
double Incre_Speed[1];
Speedl_PID(Current_Angle, Desire_Angle, System_time, Incre_Speed);
Incre_Speed[0] = 1 * Incre_Speed[0];
double deltaAngle1 = 2;
double deltaAngle2 = 5;
double deltaAngle3 = 10;
//double deltaAngle4=25;
double LeftSpeed_Con_1;
double RightSpeed_Con_1;
double LeftSpeed_Con_2;
double RightSpeed_Con_2;
if (Detal_Angle <= deltaAngle1)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp1 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp1 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp1 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp1 * Incre_Speed[0];
//小角度时，两前轮调整
}
else if (Detal_Angle > deltaAngle1 && Detal_Angle <= deltaAngle2)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp2 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp2 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp2 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp2 * Incre_Speed[0];
//中小角度时，两前轮差速，两后轮跟踪调整
}
else if (Detal_Angle > deltaAngle2 && Detal_Angle <= deltaAngle3)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp3 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp3 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp3 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp3 * Incre_Speed[0];
}
else
/* 两轮差速角度控制（对外接口） */
void TwoWheel_AngleControl_Weld(float current_angle, float desired_angle,
float base_speed,float zoom, float speeds[2])
{
LeftSpeed_Con_1 = (Auto_Speed + Kp4 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp4 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp4 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp4 * Incre_Speed[0];
}
// 1. 计算归一化误差
float raw_error = desired_angle - current_angle;
float error = normalize_angle(raw_error);
float abs_error = fabsf(error);
double Jud_value = fabs(LeftSpeed_Con_1) - fabs(RightSpeed_Con_1);
double factor = 0;
if (Jud_value >= 0)
{
if (LeftSpeed_Con_1 > Auto_Speed_Max)
{
factor = Auto_Speed_Max / LeftSpeed_Con_1;
LeftSpeed_Con_1 = Auto_Speed_Max;
LeftSpeed_Con_2 = LeftSpeed_Con_2 * factor;
RightSpeed_Con_1 = RightSpeed_Con_1 * factor;
RightSpeed_Con_2 = RightSpeed_Con_2 * factor;
}
else if (LeftSpeed_Con_1 < -Auto_Speed_Max)
{
factor = -Auto_Speed_Max / LeftSpeed_Con_1;
LeftSpeed_Con_1 = -Auto_Speed_Max;
LeftSpeed_Con_2 = LeftSpeed_Con_2 * factor;
RightSpeed_Con_1 = RightSpeed_Con_1 * factor;
RightSpeed_Con_2 = RightSpeed_Con_2 * factor;
}
}
else
{
if (RightSpeed_Con_1 > Auto_Speed_Max)
{
factor = Auto_Speed_Max / RightSpeed_Con_1;
RightSpeed_Con_1 = Auto_Speed_Max;
RightSpeed_Con_2 = RightSpeed_Con_2 * factor;
// 2. PD控制量
float delta = zoom*compute_pd_output(error,PID_KP_WELD,PID_KD_WELD);
LeftSpeed_Con_1 = LeftSpeed_Con_1 * factor;
LeftSpeed_Con_2 = LeftSpeed_Con_2 * factor;
}
else if (LeftSpeed_Con_2 < -Auto_Speed_Max)
{
factor = -Auto_Speed_Max / RightSpeed_Con_1;
RightSpeed_Con_1 = -Auto_Speed_Max;
RightSpeed_Con_2 = RightSpeed_Con_2 * factor;
// 3. 根据误差大小选择增益因子
float factor = get_gain_factor(abs_error);
LeftSpeed_Con_1 = LeftSpeed_Con_1 * factor;
LeftSpeed_Con_2 = LeftSpeed_Con_2 * factor;
// 4. 计算左右轮速度
float left = base_speed + factor * delta;
float right = base_speed - factor * delta;
// 5. 内置最大速度 = 1.6 * |base_speed|
float max_speed = fabsf(base_speed) * MAX_SPEED_FACTOR;
// 6. 限幅：等比缩放至最大速度以内
float max_abs = fmaxf(fabsf(left), fabsf(right));
if (max_abs > max_speed && max_abs > FLT_MIN) {
float scale = max_speed / max_abs;
left *= scale;
right *= scale;
}
speeds[0] = left;
speeds[1] = right;
}
W_Speed_1[0] = LeftSpeed_Con_1;
W_Speed_1[1] = RightSpeed_Con_1;
W_Speed_1[2] = LeftSpeed_Con_2;
W_Speed_1[3] = RightSpeed_Con_2;
}
void GF_MSP_PID_Now_Der_adj_Com(double Current_Angle, double Desire_Angle_Input,
double Auto_Speed, double Auto_Speed_Max, double System_time,
double *W_Speed_1)
void GF_MSP_PID_Now_Der_adj_Com_Weld(double Current_Angle, double Desire_Angle_Input, double Auto_Speed, double Auto_Speed_Max, double System_time, double *W_Speed_1)
{
Desire_Angle = Desire_Angle_Input;
//水平 前进抬车头
double Detal_Angle = fabs(Current_Angle - Desire_Angle);
double Incre_Speed[1];
Speedl_PID(Current_Angle, Desire_Angle, System_time, Incre_Speed);
Incre_Speed[0] = 1 * Incre_Speed[0];
double deltaAngle1 = 2;
Weld_PID(Current_Angle, Desire_Angle, System_time, Incre_Speed);
Incre_Speed[0] = 8 * Incre_Speed[0];
double deltaAngle1 = 0.2;
double deltaAngle2 = 5;
double deltaAngle3 = 10;
//double deltaAngle4=25;
@ -352,36 +153,38 @@ void GF_MSP_PID_Now_Der_adj_Com(double Current_Angle, double Desire_Angle_Input,
double RightSpeed_Con_1;
double LeftSpeed_Con_2;
double RightSpeed_Con_2;
if (Detal_Angle <= deltaAngle1)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp1 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp1 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp1 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp1 * Incre_Speed[0];
//小角度时，两前轮调整
}
else if (Detal_Angle > deltaAngle1 && Detal_Angle <= deltaAngle2)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp2 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp2 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp2 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp2 * Incre_Speed[0];
//中小角度时，两前轮差速，两后轮跟踪调整
}
else if (Detal_Angle > deltaAngle2 && Detal_Angle <= deltaAngle3)
{
LeftSpeed_Con_1 = (Auto_Speed + Kp3 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp3 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp3 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp3 * Incre_Speed[0];
}
else
{
LeftSpeed_Con_1 = (Auto_Speed + Kp4 * Incre_Speed[0]);
RightSpeed_Con_1 = (Auto_Speed - Kp4 * Incre_Speed[0]);
LeftSpeed_Con_2 = Auto_Speed + Kp4 * Incre_Speed[0];
RightSpeed_Con_2 = Auto_Speed - Kp4 * Incre_Speed[0];
}
// if (Detal_Angle >= deltaAngle1)
// {
//
////小角度时，两前轮调整
// }
// else if (Detal_Angle > deltaAngle1 && Detal_Angle <= deltaAngle2)
// {
// LeftSpeed_Con_1 = (Auto_Speed + Kp2 * Incre_Speed[0]);
// RightSpeed_Con_1 = (Auto_Speed - Kp2 * Incre_Speed[0]);
// LeftSpeed_Con_2 = Auto_Speed + Kp2 * Incre_Speed[0];
// RightSpeed_Con_2 = Auto_Speed - Kp2 * Incre_Speed[0];
////中小角度时，两前轮差速，两后轮跟踪调整
// }
// else if (Detal_Angle > deltaAngle2 && Detal_Angle <= deltaAngle3)
// {
// LeftSpeed_Con_1 = (Auto_Speed + Kp3 * Incre_Speed[0]);
// RightSpeed_Con_1 = (Auto_Speed - Kp3 * Incre_Speed[0]);
// LeftSpeed_Con_2 = Auto_Speed + Kp3 * Incre_Speed[0];
// RightSpeed_Con_2 = Auto_Speed - Kp3 * Incre_Speed[0];
// }
// else
// {
// LeftSpeed_Con_1 = (Auto_Speed + Kp4 * Incre_Speed[0]);
// RightSpeed_Con_1 = (Auto_Speed - Kp4 * Incre_Speed[0]);
// LeftSpeed_Con_2 = Auto_Speed + Kp4 * Incre_Speed[0];
// RightSpeed_Con_2 = Auto_Speed - Kp4 * Incre_Speed[0];
// }
double Jud_value = fabs(LeftSpeed_Con_1) - fabs(RightSpeed_Con_1);
double factor = 0;
@ -433,78 +236,21 @@ void GF_MSP_PID_Now_Der_adj_Com(double Current_Angle, double Desire_Angle_Input,
}
//喷漆机器人PID算法
int32_t PositionalPID(double pidTargetValue, double pidCurrentValue, double Kp,
double Kd)
{
double Error = 0;
double P_Error = 0;
double I_Error = 0;
double D_Error = 0;
double delta = 0;
Error = pidTargetValue - pidCurrentValue;
//
if (pidTargetValue - pidCurrentValue >= 180)
{
Error = (pidTargetValue - pidCurrentValue) - 360;
}
if (pidTargetValue - pidCurrentValue <= -180)
{
Error = pidTargetValue - pidCurrentValue + 360;
}
//计算误差
P_Error = Error; //比例环节
D_Error = Error - k_1_error; //微分环节
//deltaSpeed = Kp * P_Error + Ki * I_Error + Kd * D_Error; //计算Speed输出值
delta = Kp * P_Error + Kd * D_Error;
k_1_error = Error;
return (int32_t) (delta);
}
int Angle_Tune_PID(float CurrentAngle, float TargetAngle, int Position_KP,
int Position_KI, int Position_KD, int MaxValue)
double Weld_KP = 10;
double Weld_KD = 10;
//double Sys_T=0.01;//System time
double Weld_1_error = 0;
void Weld_PID(double CurrentValue, double TargetValue, double Sys_T,
double *Gain_speed)
{
static float Bias, delta_Speed, Integral_bias, Last_Bias;
Bias = CurrentAngle - TargetAngle;
Integral_bias += Bias;
double Error;
double P_Error;
double D_Error;
Error = TargetValue - CurrentValue;
delta_Speed = Position_KP * Bias + Position_KI * Integral_bias
+ Position_KD * (Bias - Last_Bias), Last_Bias = Bias;
if (delta_Speed >= MaxValue)
{
delta_Speed = MaxValue;
}
if (delta_Speed <= -MaxValue)
{
delta_Speed = -MaxValue;
}
return (int) delta_Speed;
P_Error = Error;
D_Error = Error - Weld_1_error;
Weld_1_error = Error;
Gain_speed[0] = Weld_KP * P_Error + Weld_KD * D_Error / Sys_T;
}
//int Angle_Tune_PID(float CurrentAngle, float TargetAngle, int Position_KP,
// int Position_KI, int Position_KD, int MaxValue)
//{
// static float Bias, delta_Speed, Integral_bias, Last_Bias;
// Bias = CurrentAngle - TargetAngle;
// Integral_bias += Bias;
//
// delta_Speed = Position_KP * Bias + Position_KI * Integral_bias
// + Position_KD * (Bias - Last_Bias), Last_Bias = Bias;
// if (delta_Speed >= MaxValue)
// {
// delta_Speed = MaxValue;
// }
// if (delta_Speed <= -MaxValue)
// {
// delta_Speed = -MaxValue;
// }
// return (int) delta_Speed;
//}

24
diaoerqiege/BHBF_Robot_Lifting_Lug/Core/Src/robot_state.c
View File

@ -20,6 +20,20 @@ double RP_Speed_Ctrl = 0;
float speedAdj = 0;
#define MOTOR_TO_COUNT 164.433
void SetMoveMotorSpeed(double Speed)
{
double Inspeed = (Speed*360/100/101/6*3.1415926*0.325);//转换为m/min进入PID
float Outspeed[2] = {0};
TwoWheel_AngleControl(GV.TL720DParameters.RF_Angle_Roll, 0, Inspeed, 1, Outspeed);
GV.LeftFrontMotor.Target_Velcity = Outspeed[0] * MOTOR_TO_COUNT;
GV.RightFrontMotor.Target_Velcity = Outspeed[1] * MOTOR_TO_COUNT;
GV.LeftBackMotor.Target_Velcity = Outspeed[0] * MOTOR_TO_COUNT;
GV.RightBackMotor.Target_Velcity = Outspeed[1] * MOTOR_TO_COUNT;
}
void Manual_State_Do(void)
{
@ -402,10 +416,7 @@ void auto_forward_state_do(void)
Act_Speed =Speed_Ctrl;
if(Ref_Speed >= 5000) Ref_Speed = 5000;
GV.LeftFrontMotor.Target_Velcity = Ref_Speed;
GV.RightFrontMotor.Target_Velcity = -Ref_Speed;
GV.LeftBackMotor.Target_Velcity = Ref_Speed;
GV.RightBackMotor.Target_Velcity = -Ref_Speed;
SetMoveMotorSpeed(Ref_Speed);
}
void auto_backward_state_do(void)
@ -420,10 +431,7 @@ void auto_backward_state_do(void)
Act_Speed =Speed_Ctrl;
if(Ref_Speed >= 5000) Ref_Speed = 5000;
GV.LeftFrontMotor.Target_Velcity = -Ref_Speed;
GV.RightFrontMotor.Target_Velcity = Ref_Speed;
GV.LeftBackMotor.Target_Velcity = -Ref_Speed;
GV.RightBackMotor.Target_Velcity = Ref_Speed;
SetMoveMotorSpeed(-Ref_Speed);
}

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