SmartPDCode/f407/applications/power.c

#include "mb.h"
#include "cfg.h"
#include "web.h"
#include "lock.h"
#include "list.h"
#include "paras.h"
#include "power.h"
#include "thread.h"
#include "datadef.h"


#define LIMIT_HOF(x)  (x*1.1f)
#define LIMIT_LOF(x)  (x*0.9f)

typedef struct {
    lock_t          lck;
    uint8_t         cur_addr;
    
    uint8_t         chs;                    //所有控制板的总通道数
    power_ch_t      **pch;                  //动态指针
    power_ch_t      ch0;
    
    uint8_t         cnt;                    //实际扫到的板子个数，不可大于POWER_
    uint8_t         brd_max;
    board_data_t    *pbrd[POWER_BOARD_MAX+1];       //通过modbus地址索引
    
    board_key_t     key[POWER_BOARD_MAX+1];
    power_total_t   ttl;
    uint8_t         flag[POWER_CH_MAX];
    
    product_data_t *prod;
    power_all_t    all;
}power_handle_t;

static int get_power(power_ch_t *pch)
{
    return power_get_ch(pch->info.ch, pch);
}
static int get_alarm(power_ch_t *pch)
{
    power_ch_t pc;
    int r = power_get_ch(pch->info.ch, &pc);
    if(r==0) {
        pch->alarm = pc.alarm;
    }
    return r;
}
static int set_ch(power_ch_t *pch)
{
    return power_set_ch_sw(pch->info.ch, pch->power[0].status);
}
static int set_open_delay(power_ch_t *pch)
{
    return power_set_open_delay(pch);
}
static int set_close_delay(power_ch_t *pch)
{
    return power_set_close_delay(pch);
}
static int set_kb_value(power_ch_t *pch)
{
    return 0;//power_set_kb_val(pch);
}
static int set_threshold(power_ch_t *pch)
{
    return power_set_threshold(pch);
}
static int reset_consump(power_ch_t *pch)
{
    return power_reset();
}
static int do_detect(uint8_t addr)
{
    return 0;
}
static int get_info(uint8_t addr, board_info_t *info)
{
    return 0;
}
static int get_board(board_data_t *pbrd)
{
    return 0;
}
static int set_board(uint8_t addr, uint8_t on)
{
    return power_set_board_sw(addr, on);
}
static int set_all(uint8_t on)
{
    return power_set_all_sw(on);
}


static board_fn_t board_fn={
    .get_power = get_power,
    .get_alarm = get_alarm,
    .set_ch = set_ch,
    .set_open_delay = set_open_delay,
    .set_close_delay = set_close_delay,
    .set_kb_value = set_kb_value,
    .set_threshold = set_threshold,
    .reset_consump = reset_consump,

    .detect = do_detect,
    .get_info = get_info,
    //.get_board = get_board,
    .set_board = set_board,
    .set_all = set_all,
};
static power_handle_t pwrHandle={0};

static int get_flag(power_handle_t *h, uint8_t ch, uint8_t thr)
{
    return (h->flag[ch]&(1<<thr))?1:0;
}
static void set_flag(power_handle_t *h, uint8_t ch, uint8_t thr, int flag)
{
    if(flag) {
        h->flag[ch] |= 1<<thr;
    }
    else {
        h->flag[ch] &= ~(1<<thr);
    }
}

static int alarm_evt_handle(power_handle_t *h, power_ch_t *pch)
{
    alarm_data_t ad;
    
    ad.ch = pch->info.ch;
    ad.alarm = pch->alarm;
    ad.time = pch->time;
    web_post(PKT_TYPE_ALARM, &ad, sizeof(ad));
    
    return 0;
}


static void memswap(uint8_t *buf, int len)
{
    int i;
    uint8_t tmp;
    for(i=0; i<len; i+=2) {
        tmp = buf[i];
        buf[i] = buf[i+1];
        buf[i+1] = tmp;
    }
}
static int read_reg(power_handle_t *h, uint8_t addr, uint16_t reg, uint16_t *data, int cnt)
{
    int i,r=0;
    for(i=0; i<POWER_RETRY_TIMES; i++) {
        r = mb_read(MB_ID_POWER, addr, reg, data, cnt, POWER_BOARD_TIMEOUT);
        if(r==cnt) {
            break;
        }
    }
    return (r==cnt)?0:-1;
}
static int write_reg(power_handle_t *h, uint8_t addr, uint16_t reg, uint16_t *data, int cnt)
{
    int i,r=0;
    for(i=0; i<POWER_RETRY_TIMES; i++) {
        r = mb_write(MB_ID_POWER, addr, reg, data, cnt);
        if(r==cnt) break;
    }
    return (r==cnt)?0:-1;
}
////////////////////////////////////////////////////////////////////
static int get_key(power_handle_t *h, uint8_t addr, board_key_t *key)
{
    int i,r;
    uint16_t tmp[2];
    
    if(h->prod->type==PDU_AC_I1O1 || h->prod->type==PDU_AC_I3O1_H) {
        r = read_reg(h, addr, POWER_AC_GET_INFO, tmp, 1);
        if(r==0) {
            key->type = (tmp[0]>>8)&0xFF;
            key->chs = tmp[0]&0xFF;
        }
    }
    else {
        r = read_reg(h, addr, POWER_DC_INFO, tmp, 2);
        if(r==0) {
            key->type = (tmp[0]>>8)&0xFF;
            key->chs = tmp[0]&0xFF;
					if(h->prod->type == PDU_AC_I3O3)			
					{
						key->chs /= 3;
					}
            return 0;
        }
    }
    
    return r;
}
////////////////////////////////////////////////////////////////
int power_set_kb_value(power_handle_t *h, int type, int addr, kb_val_t *kv)
{
    switch(type) {
        case AC_SINGLE_S_TYPE:
        {
            /*
            unsigned int offset = 0;
            unsigned int rval = 0 ;
            unsigned short data_temp[8] = {0};
            if(chn>=8)
                return -1;  
            offset = _SWITCH_AC_SINGLE_S_KB_VAL+chn*8;
            data_temp[0] = (unsigned short)_kb_val->voltage_k;
            data_temp[1] = (unsigned short)((_kb_val->voltage_k-data_temp[0])*1000);
            data_temp[2] = (unsigned short)_kb_val->voltage_b;
            data_temp[3] = (unsigned short)((_kb_val->voltage_b-data_temp[2])*1000);
            data_temp[4] = (unsigned short)_kb_val->current_k;
            data_temp[5] = (unsigned short)((_kb_val->current_k-data_temp[4])*1000);
            data_temp[6] = (unsigned short)_kb_val->current_b;
            data_temp[7] = (unsigned short)((_kb_val->current_b-data_temp[6])*1000);
            g_modbus_write_x_reg(manger,saddr,offset,8,data_temp);
            */
        }
        break;
        
        case AC_SINGLE_B_TYPE:
        {
            /*
            unsigned int offset = 0;
            unsigned int rval = 0 ;
            unsigned short data_temp[8] = {0};
            if(pch->info.>=4)
                return -1;  
            offset = _SWITCH_AC_SINGLE_B_KB_VAL+chn*8;
            data_temp[0] = (unsigned short)_kb_val->voltage_k;
            data_temp[1] = (unsigned short)((_kb_val->voltage_k-data_temp[0])*1000);
            data_temp[2] = (unsigned short)_kb_val->voltage_b;
            data_temp[3] = (unsigned short)((_kb_val->voltage_b-data_temp[2])*1000);
            data_temp[4] = (unsigned short)_kb_val->current_k;
            data_temp[5] = (unsigned short)((_kb_val->current_k-data_temp[4])*1000);
            data_temp[6] = (unsigned short)_kb_val->current_b;
            data_temp[7] = (unsigned short)((_kb_val->current_b-data_temp[6])*1000);
            g_modbus_write_x_reg(manger,saddr,offset,8,data_temp);
            */
        }
        break;

        case DCPDU_TYPE:
        {/*
            unsigned short offset = 0;
            unsigned short data_temp[8] = {0};
            offset = _SWITCH_DC_KB_VAL;
            data_temp[0] = (unsigned short)_kb_val->voltage_k;
            data_temp[1] = (unsigned short)((_kb_val->voltage_k-data_temp[0])*1000);
            data_temp[2] = (unsigned short)_kb_val->voltage_b;
            data_temp[3] = (unsigned short)((_kb_val->voltage_b-data_temp[2])*1000);
            data_temp[4] = (unsigned short)_kb_val->current_k;
            data_temp[5] = (unsigned short)((_kb_val->current_k-data_temp[4])*1000);
            data_temp[6] = (unsigned short)_kb_val->current_b;
            data_temp[7] = (unsigned short)((_kb_val->current_b-data_temp[6])*1000);
            g_modbus_write_x_reg(manger,saddr,offset,8, data_temp);
            */
        }
        break;
        
        case TREE_AC_TYPE:
        {
            
        }
        break;
        
        case AC_MULTI_S_TYPE:
        case AC_MULTI_B_TYPE:
        case DC_OUT_TYPE:
        case DC_IN_TYPE:
        default:
        return -1;
    }
}


//////////////////////////////////////////////////////////////////
static uint8_t get_ch_idx(board_data_t *pbrd, uint8_t sch)
{
    uint8_t ch=0;
    uint8_t pwr_type=paras_get()->prod.type;
    if(pbrd->type==TREE_AC_TYPE) {
        if(pwr_type == PDU_AC_I3O3) {
            ch = pbrd->ch0 + sch/3;
        }
        else {
            ch = pbrd->ch0 + sch;
        }
    }
    else {
        ch = pbrd->ch0 + sch;
    }
    
    return ch;
}
static int threshold_proc(power_handle_t *h, board_data_t *pbrd)
{
    int i,j,r=-1,times=1;
    power_ch_t *pch=NULL;
    
    for (i=0; i<pbrd->chs; i++) {
        pch = &pbrd->pch[i];
        if(h->prod->type==PDU_AC_I3O3) {
            times = 3;
            
            //设置为输出三相且三相有缺失则报警
            if(pch->info.ph_val && pbrd->ph_loss  && get_flag(h, pch->info.ch, ALARM_PH_LOSS)==0) {
                set_flag(h, pch->info.ch, ALARM_PH_LOSS, 1);
                alarm_evt_handle(h, pch);
            }
            else {
                set_flag(h, pch->info.ch, ALARM_PH_LOSS, 0);
            }
        }
        
        for(j=0; j<times; j++) {
            if(pch->thr.v_upper.en) {
                if(pch->power[j].voltage>pch->thr.v_upper.val) {
                    if(pch->alarm.v_upper && get_flag(h, pch->info.ch, ALARM_V_UPPER)==0) {
                        set_flag(h, pch->info.ch, ALARM_V_UPPER, 1);
                        alarm_evt_handle(h, pch);
                    }
                }
                else if(pch->power[j].voltage<pch->thr.v_lower.val) {
                    if(pch->alarm.v_lower && get_flag(h, pch->info.ch, ALARM_V_LOWER)==0) {
                        set_flag(h, pch->info.ch, ALARM_V_LOWER, 1);
                        alarm_evt_handle(h, pch);
                    }
                }
                else {
                    set_flag(h, pch->info.ch, ALARM_V_UPPER, 0);
                    set_flag(h, pch->info.ch, ALARM_V_LOWER, 0);
                }
            }
            
            if(pch->thr.c_upper.en) {
                if(pch->power[j].current>pch->thr.c_upper.val) {
                    if(pch->alarm.c_upper && get_flag(h, pch->info.ch, ALARM_C_UPPER)==0) {
                        set_flag(h, pch->info.ch, ALARM_C_UPPER, 1);
                        alarm_evt_handle(h, pch);
                    }
                    else {
                        set_flag(h, pch->info.ch, ALARM_C_UPPER, 0);
                    }
                }
            }
            
            if(pch->thr.p_upper.en) {
                if(pch->power[j].power>pch->thr.p_upper.val) {
                    if(pch->alarm.p_upper && get_flag(h, pch->info.ch, ALARM_P_UPPER)==0) {
                        set_flag(h, pch->info.ch, ALARM_P_UPPER, 0);
                        alarm_evt_handle(h, pch);
                    }
                }
                else {
                    set_flag(h, pch->info.ch, ALARM_P_UPPER, 0);
                }
            }
            
            if(pch->thr.w_upper.en) {
                if(pch->power[j].current>pch->thr.w_upper.val) {
                    if(pch->alarm.w_upper==1 && get_flag(h, pch->info.ch, ALARM_W_UPPER)==0) {
                        set_flag(h, pch->info.ch, ALARM_W_UPPER, 1);
                        alarm_evt_handle(h, pch);
                    }
                }
                else {
                    set_flag(h, pch->info.ch, ALARM_C_UPPER, 0);
                }
            }
        }
    }
    
    return 0;
}
static int total_proc(power_handle_t *h)
{
    total_t tmp[3]={0};
    int i,j,k,r=-1,times=1;
    power_ch_t *pch=NULL;
    board_data_t *pbrd=NULL;
    
    lock_on(h->lck);
    if(h->prod->type==PDU_AC_I3O3) times = 3;
    for(i=0; i<h->brd_max; i++) {
        if(h->pbrd[i]) {
            for (j=0; i<h->pbrd[i]->chs; i++) {
                pch = &h->pbrd[i]->pch[j];
                for(k=0; k<times; k++) {
                    tmp[k].voltage = pch->power[j].voltage;
                    tmp[k].current += pch->power[j].current;
                    tmp[k].power   += pch->power[j].power;
                    tmp[k].freq    = pch->power[j].freq;
                    tmp[k].consump += pch->power[j].consump;
                    tmp[k].active  = pch->power[j].active;
                    tmp[k].reactive = pch->power[j].reactive;
                }
            }
        }
    }
    
    h->ttl.type = h->prod->type;
    for(k=0; k<times; k++) {
        h->ttl.total[k].voltage = tmp[k].voltage;
        h->ttl.total[k].current = tmp[k].current;
        h->ttl.total[k].power = tmp[k].power;
        h->ttl.total[k].freq = tmp[k].freq;
        h->ttl.total[k].consump = tmp[k].consump;
        h->ttl.total[k].factor = tmp[k].active/tmp[k].power;
        h->ttl.total[k].active  = tmp[k].active;
        h->ttl.total[k].reactive = tmp[k].reactive;
    }
    lock_off(h->lck);
    
    return 0;
}
static int board_read(power_handle_t *h, board_data_t *pbrd)
{
    int i,j,r=-1;
    power_t *pwr,power;
    uint16_t offset,tmp[144];
    power_ch_t *pch=NULL;
    
    lock_on(h->lck);
    if(pbrd) {
        time_t tm = mktime(localtime(NULL));
        switch(pbrd->type) {
            case AC_SINGLE_S_TYPE:
            case AC_SINGLE_B_TYPE:
            {
                uint32_t val;
                
                offset = POWER_AC_CUR_INFO_L;
                r = read_reg(h, pbrd->addr, offset, tmp, pbrd->chs*12);
                if (r<0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, pbrd->chs*12);
                    break;
                }

                
                for (i=0; i<pbrd->chs; i++) {
                    int idx = i * 12;
                    pwr = &pbrd->pch[i].power[0];
                    
                    val = (tmp[1 + idx] << 16) | tmp[0 + idx];
                    pwr->voltage = val / 1000.0;
                    
                    val = (tmp[3 + idx] << 16) | tmp[2 + idx];
                    pwr->current = val / 1000.0;
                    
                    val = (tmp[5 + idx] << 16) | tmp[4 + idx];
                    pwr->power = val / 1000.0;
                    
                    val = (tmp[7 + idx] << 16) | tmp[6 + idx];
                    pwr->freq = val / 1000.0;
                    
                    val = (tmp[9 + idx] << 16) | tmp[8 + idx];
                    pwr->consump = val / 1000.0;
                    
                    val = (tmp[11 + idx] << 16) | tmp[10 + idx];
                    pwr->factor = val / 1000.0;
                    
                    pbrd->pch[i].time = tm;
                }

                offset = POWER_AC_STAT_INFO_L;
								memset(tmp,0,sizeof(tmp));
                r = read_reg(h, pbrd->addr, offset, tmp, pbrd->chs);
                if (r<0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, pbrd->chs);
                    break;
                }
 
                for (i=0; i<pbrd->chs; i++) {
                    pch = &pbrd->pch[i];
                    pch->power[0].status = tmp[i] & (0x01);
                    pch->alarm.v_upper   = (tmp[i] & BIT(2))?1:0;
                    pch->alarm.v_lower   = (tmp[i] & BIT(4))?1:0;
                    pch->alarm.c_upper   = (tmp[i] & BIT(6))?1:0;
                    pch->alarm.p_upper   = (tmp[i] & BIT(8))?1:0;
                    pch->alarm.w_upper   = (tmp[i] & BIT(10))?1:0;
                    pch->alarm.ph_loss   = 0;
                }
                
                offset = POWER_AC_BREAKER_INFO;
                r = read_reg(h, pch->info.addr, offset, tmp, 1);
                if (r < 0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, pbrd->chs);
                    break;
                }
                pbrd->brk[0].samp.sw = (tmp[0]&BIT(0))?1:0;
                pbrd->brk[0].samp.time = tm;
                pbrd->brk[1].samp.sw = (tmp[0]&BIT(1))?1:0;
                pbrd->brk[1].samp.time = tm;

								uint16_t buffer[16] = {0};

								for (i=0; i<pbrd->chs; i++) {
									pch = &pbrd->pch[i];
									offset = POWER_AC_THRESHOLD_L+i*16;
									r = read_reg(h, pch->info.addr, offset, buffer, 16);
									if(r) break;
            
									pch->thr.v_upper.val = ((buffer[1]<<16)|buffer[0])/1000;
									pch->thr.v_lower.val = ((buffer[3]<<16)|buffer[2])/1000;
									pch->thr.c_upper.val = ((buffer[5]<<16)|buffer[4])/1000;
									pch->thr.p_upper.val = ((buffer[9]<<16)|buffer[8])/1000;
									pch->thr.w_upper.val = ((buffer[13]<<16)|buffer[12])/1000;
								}
            }
            break;

            case DCPDU_TYPE:
            {
                uint32_t flag;
                uint16_t *ptmp = tmp + 32;
                
                offset = POWER_DC_OUT_INFO + 16;
                r = read_reg(h, pbrd->addr, offset, ptmp, 32);
                if (r<0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, 32);
                    break;
                }
                
                for (i = 0; i < pbrd->chs; i++) {
                    int Index = i * 8;
                    pwr = &pbrd->pch[i].power[0];
                    
                    float value = (tmp[1 + Index] << 16) + tmp[0 + Index];
                    pwr->voltage = value / 1000.0;
                    
                    value = (tmp[3 + Index] << 16) + tmp[2 + Index];
                    pwr->current = value / 1000.0;
                    
                    value = (tmp[5 + Index] << 16) + tmp[4 + Index];
                    pwr->power = value / 1000.0;

                    value = (tmp[7 + Index] << 16) + tmp[6 + Index];
                    pwr->consump = value / 1000.0;

                    pwr->freq = 0;
                    pwr->factor = 1;
                    pbrd->pch[i].time = tm;
                }

                offset = POWER_DC_STAT_INFO;
                r = read_reg(h, pbrd->addr, offset, tmp, 2);
                if (r<0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, 2);
                    break;
                }
                
                for (i = 0; i < pbrd->chs; i++) {
                    flag = (tmp[1] << 16) + tmp[0];
                    pbrd->pch[i].power[0].status = (flag >> i) & 0x1;
                }
                
                // 获取报警状态
                offset = POWER_DC_WARNING;
                r = read_reg(h, pbrd->addr, offset, tmp, 16);
                if (r<0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, 16);
                    break;
                }
                
                for (i = 0; i < pbrd->chs; i++) {
                    int Index = i * 2;
                    pch = &pbrd->pch[i];
                    pch->alarm.v_upper = (tmp[0+Index] & BIT(0))?1:0;
                    pch->alarm.v_lower = (tmp[0+Index] & BIT(1))?1:0;
                    pch->alarm.c_upper = (tmp[0+Index] & BIT(2))?1:0;
                    pch->alarm.p_upper = (tmp[0+Index] & BIT(3))?1:0;
                    pch->alarm.w_upper = (tmp[0+Index] & BIT(4))?1:0;
                }
            }
            break;
            
            case TREE_AC_TYPE:
            {
                uint8_t v=0;
                offset = POWER_AC3_OUT_INFO;
                r = read_reg(h, pbrd->addr, offset, tmp, 80);
                if (r < 0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, 80);
                    break;
                }
                
                offset = POWER_AC3_OUT_INFO+40;
                uint16_t* ptmp=tmp+80;
                r = read_reg(h, pbrd->addr, offset, ptmp, 64);
                if (r < 0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, 64);
                    break;
                }
                
                for (i=0; i<pbrd->chs; i++) {

                   if(h->prod->type==PDU_AC_I3O3) {
										 int index_2 = 0;
										 for(int j = 0; j < 3;j++)
										 {
											 pwr = &pbrd->pch[i].power[j];
											 index_2 = (j*16) + (48*i);
											 pwr->voltage = ((tmp[1+index_2] << 16) + tmp[0+index_2])/1000.0f;
											 pwr->current = ((tmp[3+index_2] << 16) + tmp[2+index_2])/1000.0f;
											 pwr->power 	= ((tmp[5+index_2] << 16) + tmp[4+index_2])/1000.0f;
											 pwr->freq 		= ((tmp[11+index_2] << 16) + tmp[10+index_2])/1000.0f;
											 pwr->consump = ((tmp[13+index_2] << 16) + tmp[12+index_2])/1000.0f;
											 pwr->factor 	= ((tmp[15+index_2] << 16) + tmp[14+index_2])/1000.0f;
										 }
									 }else{
										int Index = i * 16;
                    pwr = &pbrd->pch[i].power[0];
                    float value = (tmp[1+Index] << 16) + tmp[0+Index];

                    pwr->voltage = value / 1000.0f;
                    
                    value = (tmp[3+Index] << 16) + tmp[2+Index];
                    pwr->current = value / 1000.0f;
                    
                    value = (tmp[5+Index] << 16) + tmp[4+Index];
                    pwr->power = value / 1000.0f;
                    
                    value = (tmp[7+Index] << 16) + tmp[6+Index];
                    
                    value = (tmp[9+Index] << 16) + tmp[8+Index];
                    
                    value = (tmp[11+Index] << 16) + tmp[10+Index];
                    pwr->freq = value / 1000.0f;
                    
                    value = (tmp[13+Index] << 16) + tmp[12+Index];
                    pwr->consump = value / 1000.0f;
                    
                    value = (tmp[15+Index] << 16) + tmp[14+Index];
                    pwr->factor = value / 1023.0f;
                    
                    pbrd->pch[i].time = tm;										
									}
                }
                
                //获取通道开关状态及零线状态 
                offset = POWER_AC3_OUT_ENABLE;
                r = read_reg(h, pbrd->addr, offset, tmp, 20);
                if (r < 0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, 20);
                    break;
                }
                for (i=0; i<pbrd->chs; i++) {
									if(h->prod->type==PDU_AC_I3O3) {
									for(int j = 0; j < 3;j++)
										pbrd->pch[i].power[j].status = tmp[0+(j*2)+ (i*6)] & 0x01;
									pbrd->pch[i].power[0].nwire  = tmp[18] & 0x01;
									}else {
                    int Index = i * 2;
                    pbrd->pch[i].power[0].status = tmp[0+Index] & 0x01;
                    pbrd->pch[i].power[0].nwire  = tmp[18] & 0x01;
									}
                }
                
                //获取故障状态
                offset = POWER_AC3_OUT_ERROR;
                r = read_reg(h, pbrd->addr, offset, tmp, 18);
                if (r < 0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, 18);
                    break;
                }
                for (i=0; i<pbrd->chs; i++) {
                    int Index = i * 2;
                    pch = &pbrd->pch[i];
                    pch->alarm.v_upper = (tmp[0+Index] & BIT(0))?1:0;
                    pch->alarm.v_lower = (tmp[0+Index] & BIT(1))?1:0;
                    pch->alarm.c_upper = (tmp[0+Index] & BIT(2))?1:0;
                    pch->alarm.p_upper = (tmp[0+Index] & BIT(3))?1:0;
                    pch->alarm.w_upper = (tmp[0+Index] & BIT(4))?1:0;
                }
                
                offset = POWER_AC3_ALARM_MISSING_PH;
                r = read_reg(h, pbrd->addr, offset, tmp, pbrd->chs);
                if (r < 0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, pbrd->chs);
                    break;
                }
                
                v = 0;
                for(i = 0; i < 3; i++) {
                    if(tmp[i * 2]>0) {
                        v |= 1<<i;
                    }
                }
                pbrd->ph_loss = v;
                
                offset = POWER_AC3_BREAKER_INFO;
                r = read_reg(h, pch->info.addr, offset, tmp, 1);
                if (r < 0) {
                    LOGE("read_reg failed, addr:%d reg:0x%04x/%d cnt:%d\n", pbrd->addr, offset, offset, pbrd->chs);
                    break;
                }
                pbrd->brk[0].samp.sw = (tmp[0]&BIT(0))?1:0;
                pbrd->brk[0].samp.time = tm;
								
								// read v max
								offset = POWER_AC3_THRESHOLD_VOL_MAX;
								
								r = read_reg(h, pch->info.addr, offset, tmp, 18);
								for (i=0; i<pbrd->chs; i++)
								{
									 
                   if(h->prod->type==PDU_AC_I3O3) {
											int Index = i * 3;
                      int ch_idx = pbrd->ch0-1+i/3;
                      pch = &pbrd->pch[ch_idx];
											pch->thr.v_upper.val = ((tmp[Index+1] << 16) + (tmp[Index+0])) / 1000;
                    }
                    else {
											pch = &pbrd->pch[i];
											pch->thr.v_upper.val = ((tmp[i+1] << 16) + (tmp[i+0])) / 1000;               
                    }
								}
								offset = POWER_AC3_THRESHOLD_VOL_MIN;
								r = read_reg(h, pch->info.addr, offset, tmp, 18);		
								for (i=0; i<pbrd->chs; i++)
								{
									 
                   if(h->prod->type==PDU_AC_I3O3) {
											int Index = i * 3;
                      int ch_idx = pbrd->ch0-1+i/3;
                      pch = &pbrd->pch[ch_idx];
											pch->thr.v_lower.val = ((tmp[Index+1] << 16) + (tmp[Index+0])) / 1000;
                    }
                    else {
											pch = &pbrd->pch[i];
											pch->thr.v_lower.val = ((tmp[i+1] << 16) + (tmp[i+0])) / 1000;               
                    }
								}								
								offset = POWER_AC3_THRESHOLD_CUR_MAX;
								r = read_reg(h, pch->info.addr, offset, tmp, 18);		
								for (i=0; i<pbrd->chs; i++)
								{
									 
                   if(h->prod->type==PDU_AC_I3O3) {
											int Index = i * 3;
                      int ch_idx = pbrd->ch0-1+i/3;
                      pch = &pbrd->pch[ch_idx];
											pch->thr.c_upper.val = ((tmp[Index+1] << 16) + (tmp[Index+0])) / 1000;
                    }
                    else {
											pch = &pbrd->pch[i];
											pch->thr.c_upper.val = ((tmp[i+1] << 16) + (tmp[i+0])) / 1000;               
                    }
								}		
								offset = POWER_AC3_THRESHOLD_PWR_MAX;
								r = read_reg(h, pch->info.addr, offset, tmp, 18);		
								for (i=0; i<pbrd->chs; i++)
								{
									 
                   if(h->prod->type==PDU_AC_I3O3) {
											int Index = i * 3;
                      int ch_idx = pbrd->ch0-1+i/3;
                      pch = &pbrd->pch[ch_idx];
											pch->thr.p_upper.val = ((tmp[Index+1] << 16) + (tmp[Index+0])) / 1000;
                    }
                    else {
											pch = &pbrd->pch[i];
											pch->thr.p_upper.val = ((tmp[i+1] << 16) + (tmp[i+0])) / 1000;               
                    }
								}
								offset = POWER_AC3_THRESHOLD_PWRCON_MAX;
								r = read_reg(h, pch->info.addr, offset, tmp, 18);		
								for (i=0; i<pbrd->chs; i++)
								{
									 
                   if(h->prod->type==PDU_AC_I3O3) {
											int Index = i * 3;
                      int ch_idx = pbrd->ch0-1+i/3;
                      pch = &pbrd->pch[ch_idx];
											pch->thr.w_upper.val = ((tmp[Index+1] << 16) + (tmp[Index+0])) / 1000;
                    }
                    else {
											pch = &pbrd->pch[i];
											pch->thr.w_upper.val = ((tmp[i+1] << 16) + (tmp[i+0])) / 1000;               
                    }
								}									
            }
            break;
            
            case AC_MULTI_S_TYPE:
            case AC_MULTI_B_TYPE:
            case DC_OUT_TYPE:
            case DC_IN_TYPE:
            default:
            r = -1;
            break;
        }
        
        if(r==0) {
            threshold_proc(h, pbrd);
        }
    }
    lock_off(h->lck);
    
    return r;
}
static int power_copy(power_handle_t *h)
{
    int i,r=-1;
    power_all_t *pd=&h->all;
    
    if(h->chs>0) {
        if(!pd->pch || pd->chs!=h->chs) {
            if(pd->pch) free(pd->pch);
            pd->chs = 0;
            pd->pch = malloc(sizeof(power_ch_t)*h->chs);
        }
        
        if(pd->pch) {
            pd->chs = h->chs;
            for(i=0; i<pd->chs; i++) {
                pd->pch[i] = *h->pch[i];
            }
        }
    }
    pd->ttl = h->ttl;
    
    return 0;
}
static int board_query(power_handle_t *h)
{
    int i,r;
    
    for(i=0; i<h->brd_max; i++) {
        r = board_read(h, h->pbrd[i]);
    }
    total_proc(h);
    power_copy(h);
    
    return r;
}
static void power_thread(void *arg)
{
    int r;
    board_data_t *pbrd=NULL;
    thread_handle_t *th=(thread_handle_t*)arg;
    power_handle_t *h=(power_handle_t*)th->attr->arg;;
    
    while(th->quit==0) {
        board_query(h);
        sleep(1);
    }
}


int power_init(void)
{
    power_handle_t *h=&pwrHandle;
    paras_data_t *p=paras_get();
    
    mb_para_t para={
        .mode = MB_MODE_MASTER,
        .type = MB_TYPE_RTU,
        
        .para = {
            .rtu = {
                .dev = POWER_PORT,          //设备名
                .baudrate = 115200,         //波特率
                .parity = 0,                //校验位
                .pin = -1,                   //收发控制引脚, <0 表示不使用
                .lvl = 0,                   //发送控制电平
            }
        }
    };
    
    memset(h, 0, sizeof(power_handle_t));
    h->lck = lock_init();
    h->cur_addr = 0;
    h->brd_max = POWER_BOARD_MAX;
    h->prod = &p->prod;
    
    power_scan();
    thread_start(THREAD_ID_POWER, power_thread, h);
    return 0;
}


int power_deinit(void)
{
    power_handle_t *h=&pwrHandle;
    
    lock_deinit(h->lck);
    
    return 0;
}

static power_ch_t* get_ch(power_handle_t *h, uint8_t ch)
{
    if(!h->pch || !h->chs || !h->pch[ch]) {
        return NULL;
    }
    return h->pch[ch];
}
int power_get_ch(uint8_t ch, power_ch_t *pch)
{
    int r=-1;
    power_ch_t *p=NULL;
    power_handle_t *h=&pwrHandle;
    
    lock_on(h->lck);
    p = get_ch(h, ch);
    if(p && pch) {
        *pch = *p;
        r = 0;
    }
    lock_off(h->lck);
    
    return r;
}


int power_get_board(board_data_t *pbrd)
{
    power_handle_t *h=&pwrHandle;
    
    lock_on(h->lck);
    if(!pbrd || !h->pch || !h->cnt || !h->pbrd[pbrd->addr]) {
        lock_off(h->lck);
        return -1;
    }
    *pbrd = *h->pbrd[pbrd->addr];
    lock_off(h->lck);
    
    return 0;
}


int power_set(int ch, power_ch_t *pch)
{
    power_handle_t *h=&pwrHandle;
    
    lock_on(h->lck);
    if(!pch || !h->pch || !h->chs || !h->pch[pch->info.ch]) {
        lock_off(h->lck);
        return -1;
    }
    *h->pch[pch->info.ch] = *pch;
    lock_off(h->lck);
    
    return 0;
}

static int power_map(power_handle_t *h, int chs)
{
    int i,j,r,idx=1;
    board_data_t *pbrd=NULL;
    uint8_t pwr_type=paras_get()->prod.type;
    
    if(chs>0) {
        h->chs = 0;
        h->pch = (power_ch_t**)calloc(1, sizeof(power_ch_t*)*chs);
        if(h->pch) {
            h->chs = chs;
            h->pch[0] = &h->ch0;
            strcpy(h->pch[0]->info.name, "ALL");
            
            for(i=1; i<=h->brd_max; i++) {
                pbrd = h->pbrd[i];
                if(pbrd) {
                    for(j=0; j<pbrd->chs; j++) {
                        h->pch[idx] = &h->pbrd[i]->pch[j];
                        h->pch[idx]->pbrd = h->pbrd[i];
                        sprintf(h->pch[idx]->info.name, "CH%d", idx);
                        idx++;
                    }
                }
            } 
        }
    }
    
    return 0;
}

static int power_clear(power_handle_t *h)
{
    int i,j;
    
    memset(&h->ch0, 0, sizeof(h->ch0));
    for(i=0; i<=h->brd_max; i++) {
        if(h->pbrd[i]) {
            for(j=0; j<h->pbrd[i]->chs; j++) {
                if(h->pbrd[i]->pch) {
                    free(h->pbrd[i]->pch);
                    h->pbrd[i]->pch = NULL;
                }
                h->pbrd[i]->chs = 0;
            }
            free(h->pbrd[i]);
            h->pbrd[i] = NULL;
        }
    }
    memset(h->key, 0, sizeof(h->key));
    h->cnt = 0;
    h->cur_addr = 0;
    
    return 0;
}
int power_scan(void)
{
    int r,i,j,total_chs=1;
    int ch_idx=1,brd_idx=0;
    power_ch_t *pch=NULL;
    board_key_t *pkey=NULL;
    board_data_t *pbrd=NULL;
    power_handle_t *h=&pwrHandle;
    uint16_t times,nGroups=h->prod->ch_delay;
    
    lock_on(h->lck);
    power_clear(h);
    
    pch = &h->ch0;
    pch->info.addr = 0;
    pch->info.ch = 0;
    
    for(i=1; i<=h->brd_max; i++) {
        r = get_key(h, i, &h->key[i]);
        if(r==0) {
            LOGD("___ power_scan addr %d ok, type: %d, chs: %d\n", i, h->key[i].type, h->key[i].chs);
            h->cnt++;
        }
        else {
            LOGE("___ power_scan addr %d failed\n", i);
        }
    }
    
    for(i=1; i<h->brd_max; i++) {
        pkey = &h->key[i];
        if(pkey->chs>0) {
            pbrd = (board_data_t*)calloc(1, sizeof(board_data_t));
            if(!pbrd) {
                LOGE("___ power_scan, calloc pbrd %d failed\n", i);
                return -1;
            }
            
            pbrd->fn = board_fn;
            pbrd->type = pkey->type;
            pbrd->chs  = pkey->chs;
            pbrd->addr = i;
            pbrd->ch0 = ch_idx;
            pch = (power_ch_t*)calloc(1, sizeof(power_ch_t)*pkey->chs);
            if(!pch) {
                LOGE("___ power_scan, calloc pch failed\n");
                return -1;
            }
            
            for(j=0; j<pkey->chs; j++) {
                pch[j].info.addr = i;
                pch[j].info.sch  = j;                    //序号从0开始
                pch[j].info.type = pkey->type;
                
                if(h->prod->type==PDU_AC_I3O3) {
                    pch[j].info.ch  = ch_idx+j/3;       //序号从1开始, 发给控制板需从0开始
                    pch[j].info.ph_id = j%3;
                }
                else {
                    pch[j].info.ch  = ch_idx+j;         //序号从1开始, 发给控制板需从0开始
                    pch[j].info.ph_id = 0;
                }
                
                times = (pch[j].info.ch%nGroups)?pch[j].info.ch:nGroups;
                pch[j].info.open_delay = 1000*times;
                pch[j].info.close_delay  = 1000*times;
            }
            
            if(pbrd->type==AC_SINGLE_S_TYPE || pbrd->type==AC_SINGLE_B_TYPE) {
                pbrd->brk[0].info.addr = pbrd->brk[1].info.addr = pbrd->addr;
            }
            else if(pbrd->type==TREE_AC_TYPE) {
                pbrd->brk[0].info.addr = pbrd->addr;
            }
            
            if(h->prod->type==PDU_AC_I3O3) {
                ch_idx += pkey->chs/3;
            }
            else {
                ch_idx += pkey->chs;
            }
            brd_idx++;
            
            pbrd->pch = pch;
            h->pbrd[i] = pbrd;
            total_chs += pkey->chs;
        }
    }
    power_map(h, total_chs);
    lock_off(h->lck);
    
    return 0;
}


int power_reset(void)
{
    int i,r=-1;
    uint16_t offset = 0;
    power_handle_t *h=&pwrHandle;
    board_data_t *pbrd=NULL;
    
    lock_on(h->lck);
    for(i=0; i<=h->brd_max; i++) {
        pbrd = h->pbrd[i];
        if(pbrd) {
            switch(pbrd->type) {
                case AC_SINGLE_S_TYPE:
                case AC_SINGLE_B_TYPE:
                {
                    uint16_t tmp[8];
                    offset = POWER_AC_CH_STAT_L;
                    for(i=1; i<=pbrd->chs; i++) {
                        tmp[i] = pbrd->pch[i].power[0].status;
                    }
                    r = write_reg(h, pbrd->addr, offset, tmp+1, pbrd->chs-1);
                }
                break;
                
                case DCPDU_TYPE:
                {
                    offset = POWER_DC_ALARM_CTRL_TOTAL;
                }
                break;
                
                case TREE_AC_TYPE:
                {
                    uint16_t data_temp[20];
                    
                    offset = POWER_AC3_RESET_CONSUMP;
                    data_temp[0] = data_temp[1] = data_temp[2] = 1;
                    r = write_reg(h, pbrd->addr, offset, data_temp, 3);
                    if (r<0) {
                        break;
                    }
                    
                    //初始化报警阈值
                    uint32_t value = 0;
                    memset(data_temp, 0, sizeof(data_temp));
                    offset = POWER_AC3_THRESHOLD_VOL_MAX;
                    r = write_reg(h, pbrd->addr, offset, data_temp, 18);
                    if (r<0) {
                        break;
                    }
                    offset = POWER_AC3_THRESHOLD_VOL_MIN;
                    r = write_reg(h, pbrd->addr, offset, data_temp, 18);
                    if (r<0) {
                        break;
                    }
                    
                    offset = POWER_AC3_THRESHOLD_CUR_MAX;
                    r = write_reg(h, pbrd->addr, offset, data_temp, 18);
                    if (r<0) {
                        break;
                    }
                    offset = POWER_AC3_THRESHOLD_PWR_MAX;
                    r = write_reg(h, pbrd->addr, offset, data_temp, 18);
                    if (r<0) {
                        break;
                    }
                    offset = POWER_AC3_THRESHOLD_PWRCON_MAX;
                    r = write_reg(h, pbrd->addr, offset, data_temp, 18);
                    if (r<0) {
                        break;
                    }
                    
                    for (i=1; i<=pbrd->chs; i++) {
                        memset(data_temp, 0, sizeof(data_temp));
                        offset = POWER_AC3_OUT_ENABLE + i;
                        data_temp[0] = pbrd->pch[i].power[0].status;
                        r = write_reg(h, pbrd->addr, offset, data_temp, 2);
                    }
                }
                break;
            }
        }
    }
    lock_off(h->lck);
    
    return r;
}

int power_set_ch_sw_n(power_ch_t *pch)
{
		int r;
		uint16_t	st= pch->power[0].status,offset,tmp[2]={0};
		power_handle_t *h=&pwrHandle;
    lock_on(h->lck);		
    if (pch->thr.v_upper.en == 1)
        st |= ENABLE_AC3_V_UP;
    if (pch->thr.v_lower.en == 1)
        st |= ENABLE_AC3_V_DOWN;
    if (pch->thr.c_upper.en == 1)
        st |= ENABLE_AC3_C_UP;
    if (pch->thr.p_upper.en == 1)
        st |= ENABLE_AC3_P_UP;
    if (pch->thr.w_upper.en == 1)
        st |= ENABLE_AC3_W_UP;
		switch(pch->info.type) {

        case AC_SINGLE_S_TYPE:
        case AC_SINGLE_B_TYPE:
        {
            offset = POWER_AC_CH_STAT_L + pch->info.ch-1;
            tmp[0] = st;
            r = write_reg(h, pch->info.addr, offset, tmp, 1);
        }
        break;			
			  case DCPDU_TYPE:
        {
            uint16_t mask;
            offset = POWER_DC_STAT_INFO+pch->info.ch-1;
            
            mask = ~(1 << (pch->info.ch-1));
            tmp[0] &= mask;
            tmp[0] |= (st << (pch->info.ch-1));
            r = write_reg(h, pch->info.addr, offset, tmp, 2);
        }
        break;
        
        case TREE_AC_TYPE:
        {
            uint16_t reg;
            uint8_t type=paras_get()->prod.type;
            if(type==PDU_AC_I3O3 || type==PDU_AC_I3O1) {
                reg = POWER_AC3_CH_OUT_ENABLE;
            }
            else {
                reg = POWER_AC3_OUT_ENABLE;
            }
            
            tmp[0] = st;
            offset = reg+pch->info.ch-1;
            r = write_reg(h, pch->info.addr, offset, tmp, 2);
        }
        break;
		}
		lock_off(h->lck);
}



int power_set_ch_sw(uint8_t ch, uint8_t on)
{
    int r;
    power_ch_t *pch;
    power_handle_t *h=&pwrHandle;
    uint16_t offset,tmp[2]={0},st=on;
    
    lock_on(h->lck);
    pch = get_ch(h, ch);
    if(!pch) {
        lock_off(h->lck);
        return -1;
    }
    
    if (pch->thr.v_upper.en == 1)
        st |= ENABLE_AC3_V_UP;
    if (pch->thr.v_lower.en == 1)
        st |= ENABLE_AC3_V_DOWN;
    if (pch->thr.c_upper.en == 1)
        st |= ENABLE_AC3_C_UP;
    if (pch->thr.p_upper.en == 1)
        st |= ENABLE_AC3_P_UP;
    if (pch->thr.w_upper.en == 1)
        st |= ENABLE_AC3_W_UP;
    
    switch(pch->info.type) {
        case AC_SINGLE_S_TYPE:
        case AC_SINGLE_B_TYPE:
        {
            offset = POWER_AC_CH_STAT_L + pch->info.ch-1;
            tmp[0] = st;;
            r = write_reg(h, pch->info.addr, offset, tmp, 1);
        }
        break;
        
        case DCPDU_TYPE:
        {
            uint16_t mask;
            offset = POWER_DC_STAT_INFO+pch->info.ch-1;
            
            mask = ~(1 << (pch->info.ch-1));
            tmp[0] &= mask;
            tmp[0] |= (st << (pch->info.ch-1));
            r = write_reg(h, pch->info.addr, offset, tmp, 2);
        }
        break;
        
        case TREE_AC_TYPE:
        {
            uint16_t reg;
            uint8_t type=paras_get()->prod.type;
            if(type==PDU_AC_I3O3 || type==PDU_AC_I3O1) {
                reg = POWER_AC3_CH_OUT_ENABLE;
            }
            else {
                reg = POWER_AC3_OUT_ENABLE;
            }
            
            tmp[0] = st;
            offset = reg + +pch->info.ch-1;
            r = write_reg(h, pch->info.addr, offset, tmp, 2);
        }
        break;
    }
    lock_off(h->lck);
    
    return r;
}


int power_set_board_sw(uint8_t addr, uint8_t on)
{
    int i,r;
    power_ch_t *pch;
    board_data_t *pbrd;
    power_handle_t *h=&pwrHandle;
    
    pbrd = h->pbrd[addr];
    if(!pbrd) {
        return -1;
    }
    
    for(i=0; i<pbrd->chs; i++) {
        power_set_ch_sw(pbrd->pch[i].info.ch, on);
    }
    
    return 0;
}


int power_set_all_sw(uint8_t on)
{
    int i,r;
    power_handle_t *h=&pwrHandle;
    
    for(i=1; i<=h->chs; i++) {
        power_set_ch_sw(i, on);
    }
    
    return 0;
}


int power_set_alarm(power_ch_t *pch)
{
    int r=0;
    uint16_t offset = 0;
    uint16_t nStatus = 0;
    power_handle_t *h=&pwrHandle;
    
    lock_on(h->lck);
    switch(pch->info.type) {
        case AC_SINGLE_S_TYPE:
        case AC_SINGLE_B_TYPE:
        {
            if (pch->info.ch==0) {
                offset = POWER_AC_ALARM_CTRL_TOTAL;
            }
            else {
                offset = POWER_AC_ALARM_CTRL + pch->info.ch-1;
            }
        }
        break;
        
        case DCPDU_TYPE:
        {
            if (pch->info.ch==0) {
                offset = POWER_DC_ALARM_CTRL_TOTAL;
            }
            else {
                offset = POWER_DC_ALARM_CTRL + pch->info.ch-1;
            }
        }
        break;
        
        case TREE_AC_TYPE:
        {
            if (pch->info.ch==0) {
                offset = POWER_AC3_ALARM_CTRL_TOTAL;
            }
            else {
                offset = POWER_AC3_ALARM_CTRL + pch->info.ch-1;
            }
        }
        break;
        
        default:
        r = -1;
    }
    
    if(r==0) {
        if(pch->thr.v_upper.act==ALARM_ACT_CLOSE_CH) nStatus |= BIT(1);
        if(pch->thr.v_lower.act==ALARM_ACT_CLOSE_CH) nStatus |= BIT(2);
        if(pch->thr.c_upper.act==ALARM_ACT_CLOSE_CH) nStatus |= BIT(0);
        if(pch->thr.p_upper.act==ALARM_ACT_CLOSE_CH) nStatus |= BIT(3);
        if(pch->thr.w_upper.act==ALARM_ACT_CLOSE_CH) nStatus |= BIT(4);
        r = write_reg(h, pch->info.addr, offset, &nStatus, 1);
    }
    lock_off(h->lck);
    
    return r;
}


int power_get_threshold(power_ch_t *pch)
{
    int i,r=0;
    uint16_t offset;
    power_ch_t *pch2=NULL;
    power_handle_t *h=&pwrHandle;
    
    lock_on(h->lck);
    pch2 = get_ch(h, pch->info.ch);
    pch2->thr = pch->thr;
    switch(pch->info.type) {
        case AC_SINGLE_S_TYPE:
        case AC_SINGLE_B_TYPE:
        {
            uint16_t offset = 0;
            uint32_t temp = 0 ;
            uint16_t buffer[16] = {0};

            if(pch->info.ch==0) {
                offset = POWER_AC_TOTAL_THRESHOLD;
            }
            else  {
                offset = POWER_AC_THRESHOLD_L+(pch->info.ch-1)*16;
            }
            r = read_reg(h, pch->info.addr, offset, buffer, 16);
            if(r) break;
            
            pch->thr.v_upper.val = ((buffer[1]<<16)|buffer[0])/1000;
            pch->thr.v_lower.val = ((buffer[3]<<16)|buffer[2])/1000;
            pch->thr.c_upper.val = ((buffer[5]<<16)|buffer[4])/1000;
            pch->thr.p_upper.val = ((buffer[9]<<16)|buffer[8])/1000;
            pch->thr.w_upper.val = ((buffer[13]<<16)|buffer[12])/1000;
            
        }
        break;
        
        case DCPDU_TYPE:
        {
            uint16_t temp[4];
            uint32_t value;
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_VOL_MAX:POWER_DC_THRESHOLD_VOL_MAX;
            r = read_reg(h, pch->info.addr, offset, temp, 2);
            if(r) break;
            pch->thr.v_upper.val = ((temp[1]<<16)|temp[0])/1000;
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_VOL_MIN:POWER_DC_THRESHOLD_VOL_MIN;
            r = read_reg(h, pch->info.addr, offset, temp, 2);
            if(r) break;
            pch->thr.v_lower.val = ((temp[1]<<16)|temp[0])/1000;
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_CUR_MAX:POWER_DC_THRESHOLD_CUR_MAX;
            r = read_reg(h, pch->info.addr, offset, temp, 2);
            if(r) break;
            pch->thr.c_upper.val = ((temp[1]<<16)|temp[0])/1000;
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_PWR_MAX:POWER_DC_THRESHOLD_POWER_MAX;
            r = read_reg(h, pch->info.addr, offset, temp, 2);
            if(r) break;
            pch->thr.p_upper.val = ((temp[1]<<16)|temp[0])/1000;
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_PWRCON_MAX:POWER_DC_THRESHOLD_POWERCON_MAX;
            r = read_reg(h, pch->info.addr, offset, temp, 2);
            if(r) break;
            pch->thr.w_upper.val = ((temp[1]<<16)|temp[0])/1000;
        }
        break;
        
        case TREE_AC_TYPE:
        {
            uint16_t temp[4];
            uint32_t value;
            
            if(pch->info.ch==0) {
                offset = POWER_AC3_THRESHOLD_IN;
                
                r = read_reg(h, pch->info.addr, offset, temp, 2);
                if(r) break;
                pch->thr.v_upper.val = ((temp[1]<<16)|temp[0])/1000;
                
                r = read_reg(h, pch->info.addr, offset+1, temp, 2);
                if(r) break;
                pch->thr.v_lower.val = ((temp[1]<<16)|temp[0])/1000;
                
                r = read_reg(h, pch->info.addr, offset+2, temp, 2);
                if(r) break;
                pch->thr.c_upper.val = ((temp[1]<<16)|temp[0])/1000;
                
                r = read_reg(h, pch->info.addr, offset+3, temp, 2);
                if(r) break;
                pch->thr.p_upper.val = ((temp[1]<<16)|temp[0])/1000;
                
                r = read_reg(h, pch->info.addr, offset+4, temp, 2);
                pch->thr.w_upper.val = ((temp[1]<<16)|temp[0])/1000;
            }
            else {
                offset = POWER_AC3_THRESHOLD_VOL_MAX;
                r = read_reg(h, pch->info.addr, offset, temp, 2);
                if(r) break;
                pch->thr.v_upper.val = ((temp[1]<<16)|temp[0])/1000;
                
                offset = POWER_AC3_THRESHOLD_VOL_MIN;
                r = read_reg(h, pch->info.addr, offset, temp, 2);
                if(r) break;
                pch->thr.v_lower.val = ((temp[1]<<16)|temp[0])/1000;
                
                offset = POWER_AC3_THRESHOLD_CUR_MAX;
                r = read_reg(h, pch->info.addr, offset, temp, 2);
                if(r) break;
                pch->thr.c_upper.val = ((temp[1]<<16)|temp[0])/1000;
                
                offset = POWER_AC3_THRESHOLD_PWR_MAX;
                r = read_reg(h, pch->info.addr, offset, temp, 2);
                if(r) break;
                pch->thr.p_upper.val = ((temp[1]<<16)|temp[0])/1000;
                
                offset = POWER_AC3_THRESHOLD_VOL_MAX;
                r = read_reg(h, pch->info.addr, offset, temp, 2);
                if(r) break;
                pch->thr.p_upper.val = ((temp[1]<<16)|temp[0])/1000;
            }
        }
        break;
        
        default:
        r = -1;
        break;
    }
    lock_off(h->lck);
    
    return r;
}


int power_set_threshold(power_ch_t *pch)
{
    int r=0;
    uint16_t offset;
    power_ch_t *pch2=NULL;
    power_handle_t *h=&pwrHandle;
    
    lock_on(h->lck);
    pch2 = get_ch(h, pch->info.ch);
    pch2->thr = pch->thr;
    switch(pch->info.type) {
        case AC_SINGLE_S_TYPE:
        case AC_SINGLE_B_TYPE:
        {
            uint16_t offset = 0;
            uint32_t data_temp = 0 ;
            uint16_t data_buf[16] = {0};

            //电压上限
            data_temp =  (pch->thr.v_upper.val*1000);
            data_buf[0] = data_temp;
            data_buf[1] = data_temp>>16;
            //电压下限
            data_temp =  (pch->thr.v_lower.val*1000);
            data_buf[2] = data_temp;
            data_buf[3] = data_temp>>16;
            //电流上限
            data_temp =  (pch->thr.c_upper.val*1000);
            data_buf[4] = data_temp;
            data_buf[5] = data_temp>>16;
            //电流下限
            data_temp =  (0);
            data_buf[6] = data_temp;
            data_buf[7] = data_temp>>16;

            //功率上限
            data_temp =  (pch->thr.p_upper.val*1000);
            data_buf[8] = data_temp;
            data_buf[9] = data_temp>>16;
            //功率下限
            data_temp =  0;
            data_buf[10] = data_temp;
            data_buf[11] = data_temp>>16;

            //电能上限
            data_temp =  (pch->thr.w_upper.val*1000);
            data_buf[12] = data_temp;
            data_buf[13] = data_temp>>16;
            //电能下限
            data_temp =  0;
            data_buf[14] = data_temp;
            data_buf[15] = data_temp>>16;

            if(pch->info.ch==0) {
                offset = POWER_AC_TOTAL_THRESHOLD;
            }
            else  {
                offset = POWER_AC_THRESHOLD_L+(pch->info.ch-1)*16;
            }

            r = write_reg(h, pch->info.addr, offset, data_buf, 16);
            if(r==0) {
                r = power_set_alarm(pch);
            }
        }
        break;
        
        case DCPDU_TYPE:
        {
            uint16_t data_temp[4];
            uint32_t value;
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_VOL_MAX:POWER_DC_THRESHOLD_VOL_MAX;
            value = pch->thr.v_upper.val * 1000;
            data_temp[0] = value & 0XFFFF;
            data_temp[1] = (value >> 16) & 0xFFFF;
            r = write_reg(h, pch->info.addr, offset, data_temp, 2);
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_VOL_MIN:POWER_DC_THRESHOLD_VOL_MIN;
            value = pch->thr.v_lower.val * 1000;
            data_temp[0] = value & 0XFFFF;
            data_temp[1] = (value >> 16) & 0xFFFF;
            r = write_reg(h, pch->info.addr, offset, data_temp, 2);
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_CUR_MAX:POWER_DC_THRESHOLD_CUR_MAX;
            value = pch->thr.c_upper.val * 1000;
            data_temp[0] = value & 0XFFFF;
            data_temp[1] = (value >> 16) & 0xFFFF;
            r = write_reg(h, pch->info.addr, offset, data_temp, 2);
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_PWR_MAX:POWER_DC_THRESHOLD_POWER_MAX;
            value = pch->thr.p_upper.val * 1000;
            data_temp[0] = value & 0XFFFF;
            data_temp[1] = (value >> 16) & 0xFFFF;
            r = write_reg(h, pch->info.addr, offset, data_temp, 2);
            
            offset = (pch->info.ch==0)?POWER_DC_THRESHOLD_TOTAL_PWRCON_MAX:POWER_DC_THRESHOLD_POWERCON_MAX;
            value = pch->thr.w_upper.val * 1000;
            data_temp[0] = value & 0XFFFF;
            data_temp[1] = (value >> 16) & 0xFFFF;
            r = write_reg(h, pch->info.addr, offset, data_temp, 2);
            if(r==0) {
                r = power_set_alarm(pch);
            }
        }
        break;
        
        case TREE_AC_TYPE:
        {
            uint16_t data_temp[4];
            uint32_t value;
            
            if(pch->info.ch<0) {
                offset = POWER_AC3_THRESHOLD_IN;
                value = pch->thr.v_upper.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset, data_temp, 2);
                
                value = pch->thr.v_upper.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset+1, data_temp, 2);
                
                value = pch->thr.c_upper.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset+2, data_temp, 2);
                
                value = pch->thr.p_upper.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset+3, data_temp, 2);
                
                value = pch->thr.w_upper.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset+4, data_temp, 2);
            }
            else 
						{

                offset = POWER_AC3_THRESHOLD_VOL_MAX;
                value = pch->thr.v_upper.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset, data_temp, 2);
                if(h->prod->type==PDU_AC_I3O3) {
									offset +=1;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
									offset +=1;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
								}
                offset = POWER_AC3_THRESHOLD_VOL_MIN;
                value = pch->thr.v_lower.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset, data_temp, 2);
                if(h->prod->type==PDU_AC_I3O3) {
									offset +=1;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
									offset +=1;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
								}                
                offset = POWER_AC3_THRESHOLD_CUR_MAX;
                value = pch->thr.c_upper.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset, data_temp, 2);
                if(h->prod->type==PDU_AC_I3O3) {
									offset +=1;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
									offset +=1;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
								}                   
                offset = POWER_AC3_THRESHOLD_PWR_MAX;
                value = pch->thr.p_upper.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset, data_temp, 2);
                if(h->prod->type==PDU_AC_I3O3) {
									offset +=1;;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
									offset +=1;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
								}                   
                offset = POWER_AC3_THRESHOLD_PWRCON_MAX;
                value = pch->thr.w_upper.val * 1000;
                data_temp[0] = value & 0XFFFF;
                data_temp[1] = (value >> 16) & 0xFFFF;
                r = write_reg(h, pch->info.addr, offset, data_temp, 2);	
                if(h->prod->type==PDU_AC_I3O3) {
									offset +=1;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
									offset +=1;
									r = write_reg(h, pch->info.addr, offset, data_temp, 2);
								}   									
                if(r==0) {
                    r = power_set_alarm(pch);
                }
            }
        }
        break;
        
        default:
        r = -1;
        break;
    }
    lock_off(h->lck);
    
    return r;
}


int power_set_open_delay(power_ch_t *pch)
{
    int r=-1;
    uint16_t tmp[2],reg,offset;
    power_handle_t *h=&pwrHandle;
    
    lock_on(h->lck);
    switch(pch->info.type) {
        case AC_SINGLE_S_TYPE:
        case AC_SINGLE_B_TYPE:
        {
            tmp[0] = pch->info.open_delay;
            offset = POWER_AC_OPEN_DELAY_TIME_L+pch->info.ch-1;
            r = write_reg(h, pch->info.addr, offset, tmp, 1);
        }
        break;

        case DCPDU_TYPE:
        {
            uint32_t time=pch->info.open_delay/1000;
            tmp[0] = time & 0xffff;
            tmp[1] = (time >> 16) & 0xffff;
            offset = POWER_DC_SET_OPEN_DELAY+pch->info.ch-1;
            r = write_reg(h, pch->info.addr, offset, tmp, 2);
        }
        break;
        
        case TREE_AC_TYPE:
        {
            uint32_t time=pch->info.open_delay/1000;
            tmp[0] = time & 0xffff;
            tmp[1] = (time >> 16) & 0xffff;
            if(h->prod->type==PDU_AC_I3O3) {
                offset = POWER_AC3_OPEN_DELAY_TIME+pch->info.sch*3;
                r = write_reg(h, pch->info.addr, offset+0, tmp, 2);
                if(r) break;
                r = write_reg(h, pch->info.addr, offset+1, tmp, 2);
                if(r) break;
                r = write_reg(h, pch->info.addr, offset+2, tmp, 2);
                if(r) break;
            }
            else {
                offset = POWER_AC3_OPEN_DELAY_TIME+pch->info.sch;
                r = write_reg(h, pch->info.addr, offset, tmp, 2);
            }
        }
        break;
        
        case AC_MULTI_S_TYPE:
        case AC_MULTI_B_TYPE:
        case DC_OUT_TYPE:
        case DC_IN_TYPE:
        default:
        r = -1;
    }
    lock_off(h->lck);
    
    return r;
}
int power_set_close_delay(power_ch_t *pch)
{
    int r=-1;
    uint16_t tmp[2],reg,offset;
    power_handle_t *h=&pwrHandle;
    
    lock_on(h->lck);
    switch(pch->info.type) {
        case AC_SINGLE_S_TYPE:
        case AC_SINGLE_B_TYPE:
        {
            tmp[0] = pch->info.close_delay;
            offset = POWER_AC_CLOSE_DELAY_TIME_L+pch->info.ch-1;
            r = write_reg(h, pch->info.addr, offset, tmp, 1);
        }
        break;

        case DCPDU_TYPE:
        {
            uint32_t time=pch->info.close_delay/1000;
            tmp[0] = time & 0xffff;
            tmp[1] = (time >> 16) & 0xffff;
            offset = POWER_DC_SET_CLOSE_DELAY+pch->info.ch-1;
            //r = write_reg(h, pch->info.addr, offset, tmp, 2);
        }
        break;
        
        case TREE_AC_TYPE:
        {
            uint32_t time=pch->info.close_delay/1000;
            if(h->prod->type==PDU_AC_I3O3) {
                offset = POWER_AC3_CLOSE_DELAY_TIME+pch->info.sch*3;
                r = write_reg(h, pch->info.addr, offset+0, tmp, 2);
                if(r) break;
                r = write_reg(h, pch->info.addr, offset+1, tmp, 2);
                if(r) break;
                r = write_reg(h, pch->info.addr, offset+2, tmp, 2);
                if(r) break;
            }
            else {
                offset = POWER_AC3_CLOSE_DELAY_TIME+pch->info.sch;
                r = write_reg(h, pch->info.addr, offset, tmp, 2);
            }
        }
        break;
        
        case AC_MULTI_S_TYPE:
        case AC_MULTI_B_TYPE:
        case DC_OUT_TYPE:
        case DC_IN_TYPE:
        default:
        r = -1;
        break;
    }
    lock_off(h->lck);
    
    return r;
}


int power_data_get(power_all_t *all)
{
    power_handle_t *h=&pwrHandle;
    
    if(!all) {
        return -1;
    }
    
    *all = h->all;
    return 0;
}


int power_breaker_get(breaker_all_t *all)
{
    int i,j,idx=0;
    power_handle_t *h=&pwrHandle;
    
    if(!all) {
        return -1;
    }
    
    lock_on(h->lck);
    all->cnt = 0;
    for(i=1; i<=h->cnt; i++) {
        if(h->pbrd[i]) {
            all->cnt += h->pbrd[i]->chs;
        }
    }
    if(all->cnt>0) {
        all->data = (breaker_data_t*)malloc(sizeof(breaker_data_t)*all->cnt);
        if(all->data) {
            for(i=1; i<=h->cnt; i++) {
                if(h->pbrd[i]) {
                    for(j=0; j<2; j++) {
                        if(h->pbrd[i]->brk[j].info.addr>0) {
                            all->data[idx++] = h->pbrd[i]->brk[j];
                        }
                    }
                }
            }
        }
        else {
            all->cnt = 0;
        }
    }
    lock_off(h->lck);
    
    return 0;
}