在Linux内核驱动中，构建一个存放如下结构体指针的队列：struct msg { u16 module_id; u16 cmd_id; u16 cmd_subid; u16 complete; u8 data[128]; };队列结构体如下：struct ring_buffer { int head; int tail; struct msg *data; int size; unsigned int capacity; };请给出操作这个队列的函数，包括初始化，入队，出队，注销等；再构建两个函数，函数一初始化msg结构体，将msg所有成员设置为常数（其中msg的complete成员设置为0），向msg的data数组内放置两个unsigned int 类型数据a和b，之后将msg结构体放入队列中，触发函数二，使用usleep_range()函数等待函数二将msg的complete成员设置为1后，获取函数二放入的c并还原成unsigned int 类型；函数二需要从队列中取出msg，并进行解析：判断msg的module_id是否为0x1，如果不是，报错，如果是0x1,使用switch函数解析msg的cmd_id，再根据不同的cmd_id解析cmd_subid，具体解析内容为，取出在函数一向msg的data数组中放入的a和b，还原成unsigned int 类型数据，再将一个unsigned int 类型数据c放到msg的data数组内，之后，再将msg中的complete置1；请在驱动的probe函数中注册这个队列，在remove函数中注销队列，使用移位的方式放置和还原unsigned int类型数据

初始化队列函数：

void init_ring_buffer(struct ring_buffer *ring, unsigned int capacity)
{
    ring->head = 0;
    ring->tail = 0;
    ring->size = 0;
    ring->capacity = capacity;
    ring->data = kmalloc(capacity * sizeof(struct msg), GFP_KERNEL);
}

入队操作函数：

int enqueue_msg(struct ring_buffer *ring, struct msg *msg)
{
    if (ring->size >= ring->capacity) {
        return -1; // 队列已满
    }
    ring->data[ring->tail] = *msg;
    ring->tail = (ring->tail + 1) % ring->capacity;
    ring->size++;
    return 0;
}

出队操作函数：

int dequeue_msg(struct ring_buffer *ring, struct msg *msg)
{
    if (ring->size == 0) {
        return -1; // 队列为空
    }
    *msg = ring->data[ring->head];
    ring->head = (ring->head + 1) % ring->capacity;
    ring->size--;
    return 0;
}

注销队列函数：

void destroy_ring_buffer(struct ring_buffer *ring)
{
    kfree(ring->data);
    ring->data = NULL;
    ring->capacity = 0;
}

函数一：

void init_msg(struct msg *msg, unsigned int a, unsigned int b)
{
    msg->module_id = 0x1;
    msg->cmd_id = 0x1;
    msg->cmd_subid = 0x1;
    msg->complete = 0;
    *(unsigned int*)(&msg->data[0]) = a;
    *(unsigned int*)(&msg->data[4]) = b;
    enqueue_msg(ring, msg);
    while (msg->complete == 0) {
        usleep_range(1000, 2000); // 等待函数二将complete置1
    }
    unsigned int c = *(unsigned int*)(&msg->data[0]);
    dequeue_msg(ring, msg);
}

函数二：

void process_msg(struct msg *msg)
{
    if (msg->module_id != 0x1) {
        printk(KERN_ERR "Invalid module id\n");
        return;
    }
    switch (msg->cmd_id) {
        case 0x1:
            switch (msg->cmd_subid) {
                case 0x1:
                    unsigned int a = *(unsigned int*)(&msg->data[0]);
                    unsigned int b = *(unsigned int*)(&msg->data[4]);
                    *(unsigned int*)(&msg->data[0]) = a << 1;
                    *(unsigned int*)(&msg->data[4]) = b << 1;
                    *(unsigned int*)(&msg->data[8]) = a + b;
                    msg->complete = 1;
                    break;
                default:
                    printk(KERN_ERR "Invalid cmd subid\n");
                    break;
            }
            break;
        default:
            printk(KERN_ERR "Invalid cmd id\n");
            break;
    }
}

在probe函数中注册队列：

struct ring_buffer *ring;

static int my_driver_probe(struct platform_device *pdev)
{
    ring = kmalloc(sizeof(struct ring_buffer), GFP_KERNEL);
    init_ring_buffer(ring, 10);
    // 其他初始化操作
    return 0;
}

static int my_driver_remove(struct platform_device *pdev)
{
    // 其他清理操作
    destroy_ring_buffer(ring);
    kfree(ring);
    return 0;
}