"// 运动控制插补规划算法\n\n// 定义运动规划点的数据结构\nstruct MotionPoint {\n double x; // x坐标\n double y; // y坐标\n double z; // z坐标\n double time; // 时间戳\n};\n\n// 定义插补规划算法函数\nvoid motionInterpolation(std::vector& motionPoints) {\n // 插补规划算法实现代码\n \n // 遍历运动规划点进行插补计算\n for (int i = 0; i < motionPoints.size() - 1; i++) {\n MotionPoint currentPoint = motionPoints[i];\n MotionPoint nextPoint = motionPoints[i + 1];\n \n // 根据两个点之间的距离和时间差计算速度\n double distance = sqrt(pow(nextPoint.x - currentPoint.x, 2) + pow(nextPoint.y - currentPoint.y, 2) + pow(nextPoint.z - currentPoint.z, 2));\n double timeDiff = nextPoint.time - currentPoint.time;\n double velocity = distance / timeDiff;\n \n // 根据速度进行插补计算\n for (double t = currentPoint.time; t < nextPoint.time; t += 0.1) {\n double ratio = (t - currentPoint.time) / timeDiff;\n double interpolatedX = currentPoint.x + ratio * (nextPoint.x - currentPoint.x);\n double interpolatedY = currentPoint.y + ratio * (nextPoint.y - currentPoint.y);\n double interpolatedZ = currentPoint.z + ratio * (nextPoint.z - currentPoint.z);\n \n // 执行运动控制操作，将插补得到的位置发送给运动控制器\n sendMotionCommand(interpolatedX, interpolatedY, interpolatedZ);\n }\n }\n}\n\n// 以上是一个简单的运动控制插补规划算法的示例代码。该代码通过遍历运动规划点，根据两个点之间的距离和时间差计算速度，并使用速度进行插补计算，最终将插补得到的位置发送给运动控制器。请根据具体需求进行相应的修改和优化。\n"
