acd.c

/*
# _____     ___ ____     ___ ____
#  ____|   |    ____|   |        | |____|
# |     ___|   |____ ___|    ____| |    \    PS2DEV Open Source Project.
#-----------------------------------------------------------------------
# Copyright ps2dev - http://www.ps2dev.org
# Licenced under Academic Free License version 2.0
# Review ps2sdk README & LICENSE files for further details.
*/
 
#include "accdvd_internal.h"
 
static struct acd_softc Acdc;
 
static void acd_done(struct acd *acd, struct acd_softc *arg, int ret)
{
    acInt32 tmout;
    int thid;
    int tmout_v2;
    acd_done_t done;
    acSpl state;
 
    CpuSuspendIntr(&state);
    tmout = arg->active;
    arg->sense = ret;
    tmout--;
    arg->active = tmout;
    if ( tmout < 0 )
        arg->active = 0;
    CpuResumeIntr(state);
    thid = acd->c_thid;
    tmout_v2 = acd->c_tmout;
    done = acd->c_done;
    acd->c_thid = ret;
    if ( !tmout_v2 )
        acd->c_tmout = 1;
    if ( done )
        done(acd, acd->c_arg, ret);
    if ( thid )
        WakeupThread(thid);
}
 
static void acd_atapi_done(acAtapiT atapi, void *arg, int ret)
{
    struct acd_softc *argt;
 
    argt = (struct acd_softc *)arg;
    acd_done((struct acd *)atapi, argt, ret);
}
 
static int
acd_request_in(struct acd *acd, int flag, acAtapiPacketT packet, void *buffer, int size, acAtapiDone done, char *name)
{
    int status;
    int ret;
    int ret_v10;
    int tmout;
    int v16;
    int ret_v13;
    int ret_v15;
    int state;
    int state_2;
 
    (void)name;
    if ( (Acdc.status & 1) == 0 )
        return -6;
    ret = acd->c_tmout;
    if ( ret <= 0 )
    {
        acd->c_thid = 0;
        ret = -ret;
    }
    else
    {
        acd->c_thid = GetThreadId();
    }
    acAtapiSetup(&acd->c_atapi, done ? done : acd_atapi_done, &Acdc, ret);
    CpuSuspendIntr(&state);
    ret_v10 = Acdc.drive;
    ++Acdc.active;
    CpuResumeIntr(state);
    status = ret_v10;
    if ( status < 0 )
    {
        return status;
    }
    tmout = acd->c_tmout;
    v16 = flag | ret_v10;
    if ( tmout > 0 )
        acd->c_tmout = 0;
    status = acAtapiRequest(&acd->c_atapi, v16, packet, buffer, size);
    ret_v13 = status;
    if ( status < 0 )
    {
        CpuSuspendIntr(&state_2);
        Acdc.active--;
        if ( Acdc.active < 0 )
            Acdc.active = 0;
        CpuResumeIntr(state_2);
        return ret_v13;
    }
    if ( tmout <= 0 )
    {
        return status;
    }
    while ( 1 )
    {
        int status_v14;
 
        status_v14 = SleepThread();
        if ( status_v14 == -418 )
        {
            ret_v15 = -116;
            break;
        }
        if ( status_v14 )
        {
            ret_v15 = -5;
            break;
        }
        if ( acd->c_tmout )
        {
            ret_v15 = acd->c_thid;
            acd->c_tmout = tmout;
            return ret_v15;
        }
    }
    acd->c_tmout = tmout;
    return ret_v15;
}
 
static void acd_read_done(acAtapiT atapi, struct acd_softc *arg, int ret)
{
    if ( ret >= 0 )
        ret >>= 11;
    acd_done((struct acd *)atapi, arg, ret);
}
 
int acd_read(struct acd *acd, acd_lsn_t lsn, void *buf, int sectors)
{
    int flag;
    union
    {
        struct
        {
            acUint8 opcode;
            acUint8 lun;
            acUint8 lba[4];
            // cppcheck-suppress unusedStructMember
            acUint8 padding;
            acUint8 len[2];
            // cppcheck-suppress unusedStructMember
            acUint8 padding2[3];
        };
        acAtapiPacketData pkt;
    } u;
 
    if ( !acd || !buf )
        return -22;
    if ( sectors == 0 )
    {
        return 0;
    }
    memset(&u, 0, sizeof(u));
    flag = 2;
    if ( Acdc.dma )
        flag = 3;
    u.opcode = 40;
    u.lun = 0;
    u.lba[0] = (lsn & 0xFF000000) >> 24;
    u.lba[1] = (lsn & 0xFF0000) >> 16;
    u.lba[2] = (lsn & 0xFF00) >> 8;
    u.lba[3] = lsn;
    u.len[0] = (sectors & 0xFF00) >> 8;
    u.len[1] = sectors & 0xFF;
    return acd_request_in(acd, flag, &u.pkt, buf, sectors << 11, (acAtapiDone)acd_read_done, "read");
}
 
int acd_readtoc(struct acd *acd, void *buf, int size)
{
    acAtapiPacketData v4;
 
    if ( !acd || !buf )
        return -22;
    if ( !size )
        return 0;
    memset(&v4, 0, sizeof(v4));
    v4.u_h[2] = 0;
    v4.u_w[0] = 579;
    v4.u_b[7] = (size & 0xFF00) >> 8;
    v4.u_b[6] = 0;
    v4.u_w[2] = size & 0xFF;
    return acd_request_in(acd, 2, &v4, buf, size, 0, "readtoc");
}
 
int acd_seek(struct acd *acd, acd_lsn_t lsn)
{
    acAtapiPacketData v3;
 
    if ( !acd )
        return -22;
    memset(&v3, 0, sizeof(v3));
    v3.u_h[0] = 40;
    v3.u_b[2] = (lsn & 0xFF000000) >> 24;
    v3.u_b[3] = (lsn & 0xFF0000) >> 16;
    v3.u_w[1] = (lsn & 0xFF00) >> 8;
    v3.u_w[2] = 0;
    v3.u_b[5] = lsn;
    return acd_request_in(acd, 2, &v3, 0, 0, 0, "seek");
}
 
static void acd_opentray_done(acAtapiT atapi, struct acd_softc *arg, int ret)
{
    acSpl state;
 
    if ( ret >= 0 )
    {
        CpuSuspendIntr(&state);
        arg->status = (arg->status | 6) ^ 4;
        CpuResumeIntr(state);
    }
    acd_done((struct acd *)atapi, arg, ret);
}
 
static void acd_closetray_done(acAtapiT atapi, struct acd_softc *arg, int ret)
{
    acSpl state;
 
    if ( ret >= 0 )
    {
        CpuSuspendIntr(&state);
        arg->status = (arg->status | 6) ^ 2;
        CpuResumeIntr(state);
    }
    acd_done((struct acd *)atapi, arg, ret);
}
 
int acd_ioctl(struct acd *acd, int cmd)
{
    acAtapiDone done;
    char *name;
    union
    {
        struct
        {
            acUint8 opcode;
            acUint8 imm;
            // cppcheck-suppress unusedStructMember
            acUint8 padding3[2];
            acUint8 op;
            // cppcheck-suppress unusedStructMember
            acUint8 padding4[7];
        };
        acAtapiPacketData pkt;
    } u;
 
    if ( !acd )
        return -22;
    memset(&u, 0, sizeof(u));
    done = 0;
    if ( cmd == 17 )
    {
        u.opcode = 40;
        name = "ioctl:seek+start";
    }
    else if ( (cmd & 5) != 0 )
    {
        u.opcode = 27;
        u.imm = (cmd & 0x80) != 0;
        u.op = cmd & 3;
        if ( (cmd & 2) != 0 )
        {
            done = (acAtapiDone)acd_opentray_done;
            if ( (cmd & 1) != 0 )
                done = (acAtapiDone)acd_closetray_done;
        }
        name = "ioctl:startstop";
    }
    else
    {
        return -22;
    }
    return acd_request_in(acd, 2, &u.pkt, 0, 0, done, name);
}
 
static int acd_mode_sense(struct acd *acd, int pgcode, void *buffer, int size, acAtapiDone done, char *name)
{
    acAtapiPacketData v7;
 
    memset(&v7, 0, sizeof(v7));
    v7.u_b[0] = 0x5A;
    v7.u_b[2] = pgcode;
    v7.u_b[7] = (size & 0xFF00) >> 8;
    v7.u_w[2] = size & 0xFF;
    return acd_request_in(acd, 2, &v7, buffer, size, done, name);
}
 
static int acd_mode_select(struct acd *acd, void *buffer, int size, acAtapiDone done, char *name)
{
    acAtapiPacketData v6;
 
    memset(&v6, 0, sizeof(v6));
    v6.u_b[0] = 0x55;
    v6.u_b[1] = 0x10;
    v6.u_b[7] = (size & 0xFF00) >> 8;
    v6.u_w[2] = size & 0xFF;
    return acd_request_in(acd, 6, &v6, buffer, size, done, name);
}
 
static void acd_getmedium_done(acAtapiT atapi, struct acd_softc *arg, int ret)
{
    int h_mtype;
    acSpl state;
 
    h_mtype = ret;
    if ( ret >= 0 )
    {
        acUint32 status;
        int v7;
 
        CpuSuspendIntr(&state);
        h_mtype = arg->retry.me_h.h_mtype;
        status = arg->status | 6;
        arg->medium = h_mtype;
        if ( h_mtype == 113 )
            v7 = status ^ 4;
        else
            v7 = status ^ 2;
        arg->status = v7 | 0xA00;
        CpuResumeIntr(state);
    }
    acd_done((struct acd *)atapi, arg, h_mtype);
}
 
int acd_getmedium(struct acd *acd)
{
    int ret;
    acSpl state;
 
    if ( acd )
        return acd_mode_sense(acd, 1, &Acdc.retry, 20, (acAtapiDone)acd_getmedium_done, "getmedium");
    CpuSuspendIntr(&state);
    ret = -61;
    if ( (Acdc.status & 0x800) != 0 )
        ret = Acdc.medium;
    CpuResumeIntr(state);
    return ret;
}
 
static void acd_retry_done(acAtapiT atapi, struct acd_softc *arg, int ret)
{
    int me_rretry;
    acSpl state;
 
    me_rretry = ret;
    if ( ret >= 0 )
    {
        acCdvdsifId h_mtype;
        acUint32 status;
        int v8;
 
        CpuSuspendIntr(&state);
        h_mtype = arg->retry.me_h.h_mtype;
        status = arg->status | 6;
        arg->medium = h_mtype;
        if ( h_mtype == 113 )
            v8 = status ^ 4;
        else
            v8 = status ^ 2;
        arg->status = v8 | 0xA00;
        me_rretry = arg->retry.me_rretry;
        CpuResumeIntr(state);
    }
    acd_done((struct acd *)atapi, arg, me_rretry);
}
 
int acd_getretry(struct acd *acd)
{
    if ( !acd )
        return -22;
    return acd_mode_sense(acd, 1, &Acdc.retry, 20, (acAtapiDone)acd_retry_done, "getretry");
}
 
int acd_setretry(struct acd *acd, int rretry)
{
    int size;
    acSpl state;
 
    if ( acd == 0 )
    {
        return -22;
    }
    if ( (Acdc.status & 0x200) == 0 )
    {
        return -61;
    }
    CpuSuspendIntr(&state);
    size = 0;
    if ( rretry != Acdc.retry.me_rretry )
    {
        Acdc.retry.me_rretry = rretry;
        size = (Acdc.retry.me_h.h_len[0] << 8) + Acdc.retry.me_h.h_len[1] + 2;
    }
    CpuResumeIntr(state);
    if ( !size )
        return rretry;
    return acd_mode_select(acd, &Acdc.retry, size, (acAtapiDone)acd_retry_done, "setretry");
}
 
static void acd_getspeed_done(acAtapiT atapi, struct acd_softc *arg, int ret)
{
    int v4;
    acSpl state;
 
    v4 = ret;
    if ( ret >= 0 )
    {
        acCdvdsifId speed;
        acUint32 status;
        int v8;
 
        CpuSuspendIntr(&state);
        speed = arg->speed.mc_h.h_mtype;
        v4 = (arg->speed.mc_speed[0] << 8) + arg->speed.mc_speed[1];
        status = arg->status | 6;
        arg->medium = speed;
        if ( speed == 113 )
            v8 = status ^ 4;
        else
            v8 = status ^ 2;
        arg->status = v8 | 0xC00;
        CpuResumeIntr(state);
    }
    acd_done((struct acd *)atapi, arg, v4);
}
 
static void acd_getmaxspeed_done(acAtapiT atapi, struct acd_softc *arg, int ret)
{
    int v4;
    acSpl state;
 
    v4 = ret;
    if ( ret >= 0 )
    {
        acCdvdsifId speed;
        acUint32 status;
        int v8;
 
        CpuSuspendIntr(&state);
        speed = arg->speed.mc_h.h_mtype;
        v4 = (arg->speed.mc_maxspeed[0] << 8) + arg->speed.mc_maxspeed[1];
        status = arg->status | 6;
        arg->medium = speed;
        if ( speed == 113 )
            v8 = status ^ 4;
        else
            v8 = status ^ 2;
        arg->status = v8 | 0xC00;
        CpuResumeIntr(state);
    }
    acd_done((struct acd *)atapi, arg, v4);
}
 
int acd_getspeed(struct acd *acd, int maxspeed)
{
    acAtapiDone done;
 
    if ( acd == 0 )
    {
        return -22;
    }
    done = (acAtapiDone)acd_getspeed_done;
    if ( maxspeed )
        done = (acAtapiDone)acd_getmaxspeed_done;
    return acd_mode_sense(acd, 42, &Acdc.speed, 28, done, "getspeed");
}
 
int acd_setspeed(struct acd *acd, int speed)
{
    int v3;
    int ospeed;
    union
    {
        struct
        {
            acUint8 opcode;
            acUint8 lun;
            acUint8 speed[2];
            // cppcheck-suppress unusedStructMember
            acUint8 padding[8];
        };
        acAtapiPacketData pkt;
    } u;
    acSpl state;
 
    v3 = speed;
    if ( speed < 0 )
        return -22;
    CpuSuspendIntr(&state);
    if ( (Acdc.status & 0x400) != 0 )
        ospeed = (Acdc.speed.mc_speed[0] << 8) + Acdc.speed.mc_speed[1];
    else
        ospeed = -1;
    CpuResumeIntr(state);
    if ( v3 > 0xFFFF )
        v3 = 0xFFFF;
    if ( v3 == ospeed )
        return 0;
    memset(&u, 0, sizeof(u));
    u.opcode = 0xbb;
    u.lun = 0;
    u.speed[0] = (v3 & 0xFF00) >> 8;
    u.speed[1] = v3;
    return acd_request_in(acd, 2, &u.pkt, 0, 0, 0, "setspeed");
}
 
static void acd_timer_done(acAtapiT atapi, struct acd_softc *arg, int ret)
{
    int v4;
    acSpl state;
 
    v4 = ret;
    if ( ret >= 0 )
    {
        acCdvdsifId h_mtype;
        acUint32 status;
        int status_v3;
 
        CpuSuspendIntr(&state);
        h_mtype = arg->timer.md_h.h_mtype;
        status = arg->status | 6;
        arg->medium = h_mtype;
        if ( h_mtype == 113 )
            status_v3 = status ^ 4;
        else
            status_v3 = status ^ 2;
        arg->status = status_v3 | 0x900;
        v4 = arg->timer.md_timer & 0xF;
        CpuResumeIntr(state);
    }
    acd_done((struct acd *)atapi, arg, v4);
}
 
int acd_gettimer(struct acd *acd)
{
    if ( !acd )
        return -22;
    return acd_mode_sense(acd, 13, &Acdc.timer, 16, (acAtapiDone)acd_timer_done, "gettimer");
}
 
int acd_settimer(struct acd *acd, int time)
{
    char v3;
    int acdc;
    int state;
 
    v3 = time;
    if ( acd == 0 )
    {
        return -22;
    }
    if ( (Acdc.status & 0x100) == 0 )
    {
        return -61;
    }
    CpuSuspendIntr(&state);
    Acdc.timer.md_timer = v3 & 0xF;
    acdc = ((Acdc.timer.md_h.h_len[0] << 8) + Acdc.timer.md_h.h_len[1] + 2);
    CpuResumeIntr(state);
    return acd_mode_select(acd, &Acdc.timer, acdc, (acAtapiDone)acd_timer_done, "settimer");
}
 
int acd_ready(struct acd *acd)
{
    acAtapiPacketData v2;
 
    if ( !acd )
        return -22;
    memset(&v2, 0, sizeof(v2));
    return acd_request_in(acd, 2, &v2, 0, 0, 0, "ready");
}
 
int acd_readcapacity()
{
    int ret;
    struct acd acd_data;
    struct atapi_read_capacity capacity;
    union
    {
        struct
        {
            acUint8 opcode;
            acUint8 lun;
            // cppcheck-suppress unusedStructMember
            acUint8 padding1[10];
        };
        acAtapiPacketData pkt;
    } u;
 
    acd_setup(&acd_data, 0, 0, 5000000);
    memset(&u, 0, sizeof(u));
    u.opcode = 0x25;
    u.lun = 0;
    ret = acd_request_in(&acd_data, 2, &u.pkt, &capacity, 8, 0, "readcapacity");
    if ( ret >= 0 )
    {
        unsigned int val;
 
        val = *(unsigned int *)capacity.lba;
        return (val << 24) + ((val & 0xFF00) << 8) + ((val >> 8) & 0xFF00) + ((val >> 24) & 0xFF);
    }
    return ret;
}
 
int acd_delay()
{
    iop_sys_clock_t t;
    u32 s;
    u32 us;
 
    GetSystemTime(&t);
    SysClock2USec(&t, &s, &us);
    if ( s >= 0xD )
        return 0;
    return 1000000 * (13 - s) - us;
}
 
int acd_getsense()
{
    return Acdc.sense;
}
 
acCdvdsifId acd_gettray()
{
    if ( (Acdc.status & 8) != 0 )
        return 3;
    if ( (Acdc.status & 2) != 0 )
        return 1;
    return (Acdc.status >> 1) & 2;
}
 
struct acd *acd_setup(struct acd *acd, acd_done_t done, void *arg, int tmout)
{
    if ( acd )
    {
        acd->c_done = done;
        acd->c_arg = arg;
        acd->c_thid = 0;
        acd->c_tmout = tmout;
        if ( !tmout )
            acd->c_tmout = 5000000;
    }
    return acd;
}
 
int acd_sync(struct acd *acd, int nblocking, int *resultp)
{
    int ret;
    acSpl state;
 
    CpuSuspendIntr(&state);
    ret = -11;
    if ( !acd->c_thid )
    {
        int v7;
 
        v7 = acAtapiStatus(&acd->c_atapi);
        ret = v7;
        if ( v7 > 0 )
        {
            ret = 0;
            acd->c_thid = GetThreadId();
        }
        else if ( v7 == 0 )
        {
            ret = 1;
        }
    }
    CpuResumeIntr(state);
    if ( !(ret | nblocking) )
    {
        ret = 1;
        SleepThread();
    }
    if ( ret > 0 && resultp )
    {
        *resultp = acd->c_thid;
    }
    return ret;
}
 
static void acd_ata_done(acAtaT ata, void *arg, int ret)
{
    int thid;
    struct acd_ata *acdata;
 
    (void)arg;
    acdata = (struct acd_ata *)ata;
    thid = acdata->a_thid;
    acdata->a_result = ret;
    if ( thid )
        WakeupThread(thid);
}
 
int acd_ata_request(int flag, acAtaCommandT cmd, int items, acAtaDone done, char *name)
{
    int ret;
    struct acd_ata acdata;
 
    (void)name;
    acAtaSetup(&acdata.a_ata, done ? done : acd_ata_done, 0, 0x4C4B40u);
    // cppcheck-suppress unreadVariable
    acdata.a_thid = GetThreadId();
    acdata.a_result = 0;
    ret = acAtaRequest(&acdata.a_ata, flag, cmd, items, 0, 0);
    if ( ret < 0 )
    {
        return ret;
    }
    SleepThread();
    return acdata.a_result;
}
 
static void acd_getstatus_done(acAtaT ata, void *arg, int ret)
{
    int thid;
    struct acd_ata *acdata;
    (void)arg;
    acdata = (struct acd_ata *)ata;
    if ( ret >= 0 )
        ret = *(acUint8 *)acAtaReply(&acdata->a_ata);
    thid = acdata->a_thid;
    acdata->a_result = ret;
    if ( thid )
        WakeupThread(thid);
}
 
int acd_getstatus()
{
    acAtaCommandData v1[4];
 
    v1[1] = 2021;
    v1[0] = (Acdc.drive & 0xFF) | 0x2600;
    return acd_ata_request(Acdc.drive | 2, v1, 2, acd_getstatus_done, "getstatus");
}
 
static int acd_setfeatures(int feature, int value)
{
    acAtaCommandData v3[4];
 
    v3[2] = (value & 0xFF) | 0x200;
    v3[1] = (feature & 0xFF) | 0x100;
    v3[3] = 2031;
    v3[0] = (Acdc.drive & 0xFF) | 0x600;
    return acd_ata_request(Acdc.drive | 2, v3, 4, 0, "setfeatures");
}
 
int acd_setdma(acCdvdsifId dma)
{
    acCdvdsifId v1;
    int mode;
    int ret;
    int ret_v3;
 
    v1 = dma;
    mode = dma;
    if ( !dma )
    {
        Acdc.dma = AC_CDVDSIF_ID_NOP;
        return 0;
    }
    if ( dma == 32 )
    {
        mode = 18;
        ret_v3 = 0x40000;
        while ( mode >= 0 )
        {
            if ( (Acdc.dmamap & ret_v3) != 0 )
                break;
            mode--;
            ret_v3 = 1 << mode;
        }
        v1 = mode;
        if ( mode < 0 )
            return -134;
    }
    if ( (Acdc.dmamap & (1 << v1)) == 0 )
    {
        return -134;
    }
    if ( (unsigned int)v1 < AC_CDVDSIF_ID_PAUSES )
    {
        if ( (unsigned int)v1 < AC_CDVDSIF_ID_STOP )
        {
            if ( (unsigned int)v1 >= AC_CDVDSIF_ID_PAUSE )
                mode = v1 + 8;
        }
        else
        {
            mode = v1 + 16;
        }
    }
    else
    {
        mode = v1 + 40;
    }
    ret = acd_setfeatures(3, mode);
    if ( ret < 0 )
    {
        return ret;
    }
    ret = acd_setfeatures(102, 0);
    if ( ret < 0 )
    {
        return ret;
    }
    Acdc.dma = v1;
    return v1;
}
 
acCdvdsifId acd_getdma()
{
    return Acdc.dma;
}
 
static int acd_identify(int drive)
{
    int flag;
    int ret;
    acUint16 ident[256];
    struct acd_ata acdata;
    acAtaCommandData cmd[2];
 
    flag = 16 * (drive != 0);
    cmd[0] = flag | 0x600;
    cmd[1] = 1953;
    acAtaSetup(&acdata.a_ata, acd_ata_done, 0, 0x4C4B40u);
    // cppcheck-suppress unreadVariable
    acdata.a_thid = GetThreadId();
    acdata.a_result = 0;
    ret = acAtaRequest(&acdata.a_ata, flag | 2, cmd, 2, ident, 512);
    if ( ret >= 0 )
    {
        SleepThread();
        ret = acdata.a_result;
    }
    if ( ret < 0 )
    {
        return ret;
    }
    if ( (ident[0] & 0xFF00) != 0x8500 )
        return -6;
    return ((ident[62] & 0xFF) << 8) | ((ident[63] & 0xFF) << 16) | ((ident[88] & 0xFF) << 24);
}
 
static int acd_softreset(int drive)
{
    (void)drive;
 
    return 0;
}
 
int acd_module_status()
{
    int ret;
    int state;
 
    CpuSuspendIntr(&state);
    ret = 0;
    if ( (Acdc.status & 1) != 0 )
    {
        ret = 1;
        if ( Acdc.active > 0 )
            ret = 2;
    }
    CpuResumeIntr(state);
    return ret;
}
 
int acd_module_start(int argc, char **argv)
{
    int ret;
    int drive;
    int ret_v2;
 
    (void)argc;
    (void)argv;
    ret = acd_module_status();
    drive = 0;
    if ( ret )
    {
        return ret;
    }
    while ( 1 )
    {
        acd_softreset(drive);
        ret_v2 = acd_identify(drive);
        if ( ret_v2 >= 0 )
            break;
        ++drive;
        ret = -6;
        if ( drive >= 2 )
            return ret;
    }
    if ( drive )
        Acdc.drive = 16;
    else
        Acdc.drive = 0;
    Acdc.status = 1;
    Acdc.medium = -1;
    Acdc.dmamap = ret_v2;
    acd_setdma((acCdvdsifId)32);
    return 0;
}
 
int acd_module_stop()
{
    int ret;
 
    ret = acd_module_status();
    if ( ret )
    {
        return ret;
    }
    Acdc.status = 0;
    return 0;
}
 
int acd_module_restart(int argc, char **argv)
{
    (void)argc;
    (void)argv;
 
    return -88;
}