没有匹配的函数用于调用未解析的重载函数类型

Question

首先，我是C ++的新手，所以我的问题可能已经在某个地方得到了回答，但我找不到直截了当的答案。我正在为我的硬件创建一个简单的库。我正在使用一个在Arduino IDE上运行良好的调度程序库（here就是这个例子），但是当我使用自己的IDE（Atom + PlatformIO）编译代码时，会出现这个错误：

libSRF08SRF08.cpp:43:30: error: no matching function for call to 'SchedulerClass::startLoop(<unresolved overloaded functi
on type>)'

我删除了一些代码，但如果你需要其余的代码，我可以把它。

SRF08.h

#ifndef SRF08_h
#define SRF08_h

#include "Arduino.h"

class SRF08
{
public:
    //main constructor
    SRF08(uint8_t address=address_1);
    // init the sensor
    void begin(void);

    //change sensor address from oldAddress to newAddress
    void changeAddress(uint16_t oldAddress, uint16_t newAddress);
    // scan for a single sensor address
    int8_t scanner(void);
    // scan for multiple sensors and return the table of addresses
    struct table_value scan_all(void);
    uint16_t output_value;
    void read(void);
private:
    // the main I2C address of Sensor
    uint16_t _address;
    //read sansor value base on centimiter
};
#endif

SRF08.cpp

#include "Wire.h"
#include "SRF08.h"
// Include Scheduler since we want to manage multiple tasks.
#include "Scheduler.h"

SRF08::SRF08(uint8_t address)
{
    //main constructor, address is the sensor address if u dont know it try scanner first
    //address must be an integer number between 1 to 9
    if (address == 1) _address = address_1;
     else _address = address_1;

}

void SRF08::begin(){
    //initilize I2C
    Wire.begin();
    output_value = 0;
    Scheduler.startLoop(SRF08::read);  //here is my error
}



void SRF08::read(){
    int reading = 0;
    // step 1: instruct sensor to read echoes
    Wire.beginTransmission(_address); // transmit to device #112 (0x70)
    // the address specified in the datasheet is 224 (0xE0)
    // but i2c adressing uses the high 7 bits so it's 112
    Wire.write(byte(0x00));      // sets register pointer to the command register (0x00)
    Wire.write(byte(0x51));      // command sensor to measure in "inches" (0x50)
    // use 0x51 for centimeters
    // use 0x52 for ping microseconds
    Wire.endTransmission();      // stop transmitting

    // step 2: wait for readings to happen
    delay(70);                   // datasheet suggests at least 65 milliseconds

    // step 3: instruct sensor to return a particular echo reading
    Wire.beginTransmission(_address); // transmit to device #112
    Wire.write(byte(0x02));      // sets register pointer to echo #1 register (0x02)
    Wire.endTransmission();      // stop transmitting

    // step 4: request reading from sensor
    Wire.requestFrom(_address, 2);    // request 2 bytes from slave device #112

    // step 5: receive reading from sensor
    if (2 <= Wire.available()) { // if two bytes were received
        reading = Wire.read();  // receive high byte (overwrites previous reading)
        reading = reading << 8;    // shift high byte to be high 8 bits
        reading |= Wire.read(); // receive low byte as lower 8 bits
        output_value = reading;   // print the reading
    }
    //yield();
}

Scheduler.h

#ifndef _SCHEDULER_H_
#define _SCHEDULER_H_

#include <Arduino.h>

extern "C" {
    typedef void (*SchedulerTask)(void);
    typedef void (*SchedulerParametricTask)(void *);
}

class SchedulerClass {
public:
    SchedulerClass();
    static void startLoop(SchedulerTask task, uint32_t stackSize = 1024);
    static void start(SchedulerTask task, uint32_t stackSize = 1024);
    static void start(SchedulerParametricTask task, void *data, uint32_t stackSize = 1024);

    static void yield() { ::yield(); };
};

extern SchedulerClass Scheduler;

#endif

Scheduler.cpp

#include "Scheduler.h"

extern "C" {

#define NUM_REGS 10 // r4-r11, sp, pc

typedef struct CoopTask {
    uint32_t regs[NUM_REGS];
    void* stackPtr;
    struct CoopTask* next;
    struct CoopTask* prev;
} CoopTask;

static CoopTask *cur = 0;
...
void yield(void) {
    coopDoYield(cur);
}

}; // extern "C"

SchedulerClass::SchedulerClass() {
    coopInit();
}

static void startLoopHelper(void *taskData) {
    SchedulerTask task = reinterpret_cast<SchedulerTask>(taskData);
    while (true)
        task();
}

void SchedulerClass::startLoop(SchedulerTask task, uint32_t stackSize) {
    coopSpawn(startLoopHelper, reinterpret_cast<void *>(task), stackSize);
}

static void startTaskHelper(void *taskData) {
    SchedulerTask task = reinterpret_cast<SchedulerTask>(taskData);
    task();
}

void SchedulerClass::start(SchedulerTask task, uint32_t stackSize) {
    coopSpawn(startTaskHelper, reinterpret_cast<void *>(task), stackSize);
}

void SchedulerClass::start(SchedulerParametricTask task, void *taskData, uint32_t stackSize) {
    coopSpawn(task, taskData, stackSize);
}

SchedulerClass Scheduler;