/***************************************************************************************
* FUNCTION: set the fixed color associated with each backend plane
* PARAMS: OvlUnit - CPCB OVL unit number(OVL0, OVL1, OVL2)
* plane - plane number
* Color - plane fix color value
* RETURN: 1 - succeed
* others - failed to load CPCB OVL values to BCM buffer
***************************************************************************************/
int VPP_OVL_SetPlaneColor(THINVPP_OBJ *vpp_obj, int OvlUnit, int Plane, unsigned int Color)
{
unsigned int RegAddr, RegAddr1;
unsigned int Byte;
CHECK_OVL_NUM(OvlUnit);
switch(Plane)
{
case Vpp_OVL_PLANE0:
if(VPP_CPCB_OVL0 == OvlUnit) {
RegAddr = vpp_obj->base_addr + (CPCB0_OO_FIX_0 << 2);
RegAddr1 = vpp_obj->base_addr + (CPCB0_OO_FIX0_0 << 2);
} else if(VPP_CPCB_OVL1 == OvlUnit) {
RegAddr = vpp_obj->base_addr + (CPCB1_OO_FIX_0 << 2);
RegAddr1 = vpp_obj->base_addr + (CPCB1_OO_FIX0_0 << 2);
} else {
#if (BERLIN_CHIP_VERSION >= BERLIN_B_0)
return (MV_THINVPP_EBADPARAM);
#else
RegAddr = vpp_obj->base_addr + (CPCB2_OO_FIX_0 << 2);
RegAddr1 = vpp_obj->base_addr + (CPCB2_OO_FIX0_0 << 2);
#endif
}
/*set FIX and FIX0 register for base plane*/
/*write the first byte*/
Byte = GET_LOWEST_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr, Byte);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr1 , Byte);
/*write the second byte*/
Byte = GET_SECOND_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 4 , Byte);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr1 + 4 , Byte);
/*write the third byte*/
Byte = GET_THIRD_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 8 , Byte);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr1 + 8 , Byte);
break;
case Vpp_OVL_PLANE1:
if(VPP_CPCB_OVL0 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB0_OO_FIX1_0 << 2);
else if(VPP_CPCB_OVL1 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB1_OO_FIX1_0 << 2);
else
#if (BERLIN_CHIP_VERSION >= BERLIN_B_0)
return (MV_THINVPP_EBADPARAM);
#else
RegAddr = vpp_obj->base_addr + (CPCB2_OO_FIX1_0 << 2);
#endif
/*set FIX1 register for main*/
/*write the first byte*/
Byte = GET_LOWEST_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr , Byte);
/*write the second byte*/
Byte = GET_SECOND_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 4 , Byte);
/*write the third byte*/
Byte = GET_THIRD_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 8 , Byte);
break;
case Vpp_OVL_PLANE2:
if(VPP_CPCB_OVL0 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB0_OO_FIX2_0 << 2);
else if(VPP_CPCB_OVL1 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB1_OO_FIX2_0 << 2);
else
#if (BERLIN_CHIP_VERSION >= BERLIN_B_0)
return (MV_THINVPP_EBADPARAM);
#else
RegAddr = vpp_obj->base_addr + (CPCB2_OO_FIX2_0 << 2);
#endif
/*set FIX2 register for PIP*/
/*write the first byte*/
Byte = GET_LOWEST_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr , Byte);
/*write the second byte*/
Byte = GET_SECOND_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 4 , Byte);
/*write the third byte*/
Byte = GET_THIRD_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 8 , Byte);
break;
case Vpp_OVL_PLANE3:
if(VPP_CPCB_OVL0 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB0_OO_FIX3_0 << 2);
else if(VPP_CPCB_OVL1 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB1_OO_FIX3_0 << 2);
else
return (MV_THINVPP_EBADPARAM);
/*write the first byte*/
Byte = GET_LOWEST_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr , Byte);
/*write the second byte*/
Byte = GET_SECOND_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 4 , Byte);
/*write the third byte*/
Byte = GET_THIRD_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 8 , Byte);
break;
case Vpp_OVL_PLANE3A:
if(VPP_CPCB_OVL0 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB0_OO_FIX3A_0 << 2);
else if(VPP_CPCB_OVL1 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB1_OO_FIX3A_0 << 2);
else
return (MV_THINVPP_EBADPARAM);
/*write the first byte*/
Byte = GET_LOWEST_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr, Byte);
/*write the second byte*/
Byte = GET_SECOND_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 4, Byte);
/*write the third byte*/
Byte = GET_THIRD_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 8, Byte);
break;
#if (BERLIN_CHIP_VERSION >= BERLIN_B_0)
case Vpp_OVL_PLANE3B:
if(VPP_CPCB_OVL0 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB0_OO_FIX3B_0 << 2);
else if(VPP_CPCB_OVL1 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB1_OO_FIX3B_0 << 2);
else
return (MV_THINVPP_EBADPARAM);
/*write the first byte*/
Byte = GET_LOWEST_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr, Byte);
/*write the second byte*/
Byte = GET_SECOND_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 4, Byte);
/*write the third byte*/
Byte = GET_THIRD_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 8, Byte);
break;
case Vpp_OVL_PLANE3C:
if(VPP_CPCB_OVL0 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB0_OO_FIX3C_0 << 2);
else if(VPP_CPCB_OVL1 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB1_OO_FIX3C_0 << 2);
else
return (MV_THINVPP_EBADPARAM);
/*write the first byte*/
Byte = GET_LOWEST_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr, Byte);
/*write the second byte*/
Byte = GET_SECOND_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 4, Byte);
/*write the third byte*/
Byte = GET_THIRD_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 8, Byte);
break;
case Vpp_OVL_PLANE3D:
if(VPP_CPCB_OVL0 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB0_OO_FIX3D_0 << 2);
else if(VPP_CPCB_OVL1 == OvlUnit)
RegAddr = vpp_obj->base_addr + (CPCB1_OO_FIX3D_0 << 2);
else
return (MV_THINVPP_EBADPARAM);
/*write the first byte*/
Byte = GET_LOWEST_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr , Byte);
/*write the second byte*/
Byte = GET_SECOND_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 4, Byte);
/*write the third byte*/
Byte = GET_THIRD_BYTE(Color);
THINVPP_BCMBUF_Write(vpp_obj->pVbiBcmBuf, RegAddr + 8, Byte);
break;
#endif
default:
return MV_THINVPP_EBADPARAM;
}
return (MV_THINVPP_OK);
}
void CODE10(char COM)
{
static char RR;
static int R1,R2;
static long *RR1;
static long *RR2;
static long *REZ;
RR=GET_SECOND_BYTE();
R1=(RR&0xf0)>>4;
R2=(RR&0x0f);
FORW_PSW();
switch(COM)
{
case 0x10:RR1=&R[R1];RR2=&R[R2];
*(RR1)=abs(*RR2);
SET_CC_BY_SIGN(*RR1);
break;
case 0x11:RR1=&R[R1];RR2=&R[R2];
*(RR1)=-abs(*RR2);
SET_CC_BY_SIGN(*RR1);
break;
case 0x12:R[R1]=R[R2];
RR1=&R[R1];
SET_CC_BY_SIGN(*RR1);
break;
case 0x13:RR1=&R[R1];RR2=&R[R2];
*(RR1)-=*RR2;
SET_CC_BY_SIGN(*RR1);
break;
case 0x14:RR1=&R[R1];RR2=&R[R2]; /* !!!!!!!! */
*(RR1)=*(RR1)&*RR2;
if (*(RR1)==0) PSW_CC=0;
else PSW_CC=1;
break;
case 0x15:RR1=&R[R1];RR2=&R[R2]; /* !!!!!!!!*/
*(REZ)=*(RR1)-*(RR2);
SET_CC_BY_SIGN(*REZ);
break;
case 0x16:RR1=&R[R1];RR2=&R[R2]; /* !!!!!!!!*/
*(RR1)=*(RR1)|*RR2;
if (*(RR1)==0) PSW_CC=0;
else PSW_CC=1;
break;
case 0x17:RR1=&R[R1];RR2=&R[R2]; /* !!!!!!!!*/
*(RR1)=*(RR1)^*RR2;
if (*(RR1)==0) PSW_CC=0;
else PSW_CC=1;
break;
case 0x18:*(R+R1)=*(R+R2);
break;
case 0x19:
break;
case 0x1a:RR1=&R[R1];RR2=&R[R2];
*(RR1)+=*RR2;
SET_CC_BY_SIGN(*RR1);
break;
case 0x1b:RR1=&R[R1];RR2=&R[R2];
*(RR1)-=*RR2;
SET_CC_BY_SIGN(*RR1);
break;
case 0x1c:RR1=&R[R1];RR2=&R[R2];
*(RR1)*=*RR2;
SET_CC_BY_SIGN(*RR1);
break;
case 0x1d:RR1=&R[R1];RR2=&R[R2];
*(RR1)/=*RR2;
SET_CC_BY_SIGN(*RR1);
break;
case 0x1e:RR1=&R[R1];RR2=&R[R2]; /* !!!!!!!! for cods*/
*(RR1)=*(RR1)&*RR2;
break;
case 0x1f:RR1=&R[R1];RR2=&R[R2]; /* !!!!!!!! */
*(RR1)=*(RR1)&*RR2;
break;
}
}
