void WedgePlatform::initTransceiverMap(SwSwitch* sw) {
const int MAX_WEDGE_MODULES = 16;
// If we can't get access to the USB devices, don't bother to
// create the QSFP objects; this is likely to be a permanent
// error.
try {
wedgeI2CBusLock_ = make_unique<WedgeI2CBusLock>();
} catch (const LibusbError& ex) {
LOG(ERROR) << "failed to initialize USB to I2C interface";
return;
}
// Wedge port 0 is the CPU port, so the first port associated with
// a QSFP+ is port 1. We start the transceiver IDs with 0, though.
for (int idx = 0; idx < MAX_WEDGE_MODULES; idx++) {
std::unique_ptr<WedgeQsfp> qsfpImpl =
make_unique<WedgeQsfp>(idx, wedgeI2CBusLock_.get());
for (int channel = 0; channel < QsfpModule::CHANNEL_COUNT; ++channel) {
qsfpImpl->setChannelPort(ChannelID(channel),
PortID(idx * QsfpModule::CHANNEL_COUNT + channel + 1));
}
std::unique_ptr<QsfpModule> qsfp =
make_unique<QsfpModule>(std::move(qsfpImpl));
sw->addTransceiver(TransceiverID(idx), std::move(qsfp));
LOG(INFO) << "making QSFP for " << idx;
for (int channel = 0; channel < QsfpModule::CHANNEL_COUNT; ++channel) {
sw->addTransceiverMapping(PortID(idx * QsfpModule::CHANNEL_COUNT +
channel + 1), ChannelID(channel), TransceiverID(idx));
}
}
}
VlanFields VlanFields::fromFollyDynamic(const folly::dynamic& vlanJson) {
VlanFields vlan(VlanID(vlanJson[kVlanId].asInt()),
vlanJson[kVlanName].asString().toStdString());
vlan.mtu = vlanJson[kVlanMtu].asInt();
vlan.dhcpV4Relay = folly::IPAddressV4(
vlanJson[kDhcpV4Relay].stringPiece());
vlan.dhcpV6Relay = folly::IPAddressV6(
vlanJson[kDhcpV6Relay].stringPiece());
for (const auto& o: vlanJson[kDhcpV4RelayOverrides].items()) {
vlan.dhcpRelayOverridesV4[MacAddress(o.first.asString().toStdString())] =
folly::IPAddressV4(o.second.stringPiece());
}
for (const auto& o: vlanJson[kDhcpV6RelayOverrides].items()) {
vlan.dhcpRelayOverridesV6[MacAddress(o.first.asString().toStdString())] =
folly::IPAddressV6(o.second.stringPiece());
}
for (const auto& portInfo: vlanJson[kMemberPorts].items()) {
vlan.ports.emplace(PortID(to<uint16_t>(portInfo.first.asString())),
PortInfo::fromFollyDynamic(portInfo.second));
}
vlan.arpTable = ArpTable::fromFollyDynamic(vlanJson[kArpTable]);
vlan.ndpTable = NdpTable::fromFollyDynamic(vlanJson[kNdpTable]);
vlan.arpResponseTable = ArpResponseTable::fromFollyDynamic(
vlanJson[kArpResponseTable]);
vlan.ndpResponseTable = NdpResponseTable::fromFollyDynamic(
vlanJson[kNdpResponseTable]);
return vlan;
}
PortID
Pass2NodeImpl::
mapToPortID(MUINT32 const nodeDataType)
{
//hard-coded mapping
switch(nodeDataType)
{
case PASS2_PRV_SRC:
case PASS2_CAP_SRC:
return IMGI;
break;
case PASS2_PRV_DST_0:
case PASS2_CAP_DST_0:
return WDMAO;
break;
case PASS2_PRV_DST_1:
case PASS2_CAP_DST_1:
return WROTO;
break;
case PASS2_PRV_DST_2:
return IMG2O;
break;
case PASS2_PRV_DST_3:
return VENC;
break;
case PASS2_CAP_DST_2:
return IMG3O;
default:
MY_LOGE("wrong data type %d", nodeDataType);
break;
}
return PortID();
}
BcmRxPacket::BcmRxPacket(const opennsl_pkt_t* pkt)
: unit_(pkt->unit) {
// The BCM RX code always uses a single buffer.
// As long as there is just a single buffer, we don't need to allocate
// a separate array of opennsl_pkt_blk_t objects.
CHECK_EQ(pkt->blk_count, 1);
CHECK_EQ(pkt->pkt_data, &pkt->_pkt_data);
// The BCM RX code always uses a single buffer.
// Therefore we don't bother checking to see if we need to create a chain of
// IOBufs rather than just one.
CHECK_EQ(pkt->blk_count, 1);
// The packet contains Ethernet FCS (frame check sequence) at the end before
// interpacket gap, which we are not interested in.
uint32_t length = std::max(pkt->pkt_len - 4, 0);
buf_ = IOBuf::takeOwnership(
pkt->pkt_data->data, // void* buf
length,
freeRxBuf, // FreeFunction freeFn
reinterpret_cast<void*>(unit_)); // void* userData
// TODO(aeckert): fix sdk bug where the src_port is a signed 8-bit
// int. This causes issues when the logical port numbers exceed
// 127. For now we work around the issue by casting to an 8-bit
// unsigned port id, but we should fix this in the sdk.
srcPort_ = PortID(static_cast<uint8_t>(pkt->src_port));
srcVlan_ = VlanID(pkt->vlan);
len_ = length;
}
PortID DelegateService::unusedODPPort(const SpaceObjectReference& sor) {
// We want to make this efficient in most cases, but need to make it
// exhaustively search for available ports when we can't easily find a free
// one. The approach is simple: choose a random port to start with and check
// if it's free. From there, perform a linear search (which must wrap and
// avoid reserved ports). This won't perform well in extreme cases where we
// the port space is almost completely full...
PortID starting_port_id = (rand() % (OBJECT_PORT_SYSTEM_MAX-OBJECT_PORT_SYSTEM_RESERVED_MAX)) + (OBJECT_PORT_SYSTEM_RESERVED_MAX+1);
// If we don't have a PortMap yet, then its definitely not allocated
PortMap* pm = getPortMap(sor);
if (pm == NULL) return starting_port_id;
// Loop until we hit the starting point again
PortID port_id = starting_port_id;
do {
// This port may be allocated already
PortMap::iterator it = pm->find(port_id);
if (it == pm->end())
return port_id;
// Otherwise we need to move on, ensuring looping of Port IDs.
port_id++;
if (port_id > PortID(OBJECT_PORT_SYSTEM_MAX))
port_id = OBJECT_PORT_SYSTEM_RESERVED_MAX+1;
} while(port_id != starting_port_id);
// If we get here, we're really out of ports
SILOG(odp-delegate-service, error, "Exhausted ODP ports for " << sor);
return PortID::null();
}
void UnresolvedNhopsProber::timeoutExpired() noexcept {
std::lock_guard<std::mutex> g(lock_);
auto state = sw_->getState();
for (const auto& ridAndNhopsRefCounts : nhops2RouteCount_) {
for (const auto& nhopAndRefCount : ridAndNhopsRefCounts.second) {
const auto& nhop = nhopAndRefCount.first;
auto intf = state->getInterfaces()->getInterfaceIf(nhop.intf());
if (!intf) {
continue; // interface got unconfigured
}
// Probe all nexthops for which either don't have a L2 entry
// or the entry is not resolved (port == 0). Note that we do
// not exclude pending entries here since in case of recursive
// routes we might get packets with destination set to prefix
// that needs to be resolved recursively. In ARP and NDP code
// we do not do route lookup when deciding to send ARP/NDP requests.
// So we would only try to ARP/NDP for the destination if it
// is in one of the interface subnets (which it won't be else
// we won't have needed recursive resolution). So ARP/NDP for
// all unresolved next hops. We could also consider doing route
// lookups in ARP/NDP code, but by probing all unresolved next
// hops we effectively do the same thing, since the next hops
// probed come from after the route was (recursively) resolved.
auto vlan = state->getVlans()->getVlanIf(intf->getVlanID());
CHECK(vlan); // must have vlan for configrued inteface
if (nhop.addr().isV4()) {
auto nhop4 = nhop.addr().asV4();
auto arpEntry = vlan->getArpTable()->getEntryIf(nhop4);
if (!arpEntry || arpEntry->getPort() == PortID(0)) {
VLOG(3) <<" Sending probe for unresolved next hop: " << nhop4;
ArpHandler::sendArpRequest(sw_, vlan, nhop4);
}
} else {
auto nhop6 = nhop.addr().asV6();
auto ndpEntry = vlan->getNdpTable()->getEntryIf(nhop6);
if (!ndpEntry || ndpEntry->getPort() == PortID(0)) {
VLOG(3) <<" Sending probe for unresolved next hop: " << nhop6;
IPv6Handler::sendNeighborSolicitation(sw_, nhop6, vlan);
}
}
}
}
scheduleTimeout(interval_);
}
std::pair<std::shared_ptr<SwitchState>, BootType>
SimSwitch::init(HwSwitch::Callback* callback) {
callback_ = callback;
auto state = make_shared<SwitchState>();
for (uint32_t idx = 1; idx <= numPorts_; ++idx) {
auto name = folly::to<string>("Port", idx);
state->registerPort(PortID(idx), name);
}
return std::make_pair(state, BootType::COLD_BOOT);
}
PortFields PortFields::fromFollyDynamic(const folly::dynamic& portJson) {
PortFields port(PortID(portJson[kPortId].asInt()),
portJson[kPortName].asString().toStdString());
auto itr_state = cfg::_PortState_NAMES_TO_VALUES.find(
portJson[kPortState].asString().c_str());
CHECK(itr_state != cfg::_PortState_NAMES_TO_VALUES.end());
port.state = cfg::PortState(itr_state->second);
port.ingressVlan = VlanID(portJson[kIngressVlan].asInt());
auto itr_speed = cfg::_PortSpeed_NAMES_TO_VALUES.find(
portJson[kPortSpeed].asString().c_str());
CHECK(itr_speed != cfg::_PortSpeed_NAMES_TO_VALUES.end());
port.speed = cfg::PortSpeed(itr_speed->second);
for (const auto& vlanInfo: portJson[kVlanMemberships].items()) {
port.vlans.emplace(VlanID(to<uint32_t>(vlanInfo.first.asString())),
VlanInfo::fromFollyDynamic(vlanInfo.second));
}
return port;
}
BcmRxPacket::BcmRxPacket(const opennsl_pkt_t* pkt)
: unit_(pkt->unit) {
// The BCM RX code always uses a single buffer.
// As long as there is just a single buffer, we don't need to allocate
// a separate array of opennsl_pkt_blk_t objects.
CHECK_EQ(pkt->blk_count, 1);
CHECK_EQ(pkt->pkt_data, &pkt->_pkt_data);
// The BCM RX code always uses a single buffer.
// Therefore we don't bother checking to see if we need to create a chain of
// IOBufs rather than just one.
CHECK_EQ(pkt->blk_count, 1);
buf_ = IOBuf::takeOwnership(
pkt->pkt_data->data, // void* buf
pkt->pkt_len, // uint32_t capacity
freeRxBuf, // FreeFunction freeFn
reinterpret_cast<void*>(unit_)); // void* userData
srcPort_ = PortID(pkt->src_port);
srcVlan_ = VlanID(pkt->vlan);
len_ = pkt->pkt_len;
}
BcmRxPacket::BcmRxPacket(const opennsl_pkt_t* pkt)
: unit_(pkt->unit) {
// The BCM RX code always uses a single buffer.
// As long as there is just a single buffer, we don't need to allocate
// a separate array of opennsl_pkt_blk_t objects.
CHECK_EQ(pkt->blk_count, 1);
CHECK_EQ(pkt->pkt_data, &pkt->_pkt_data);
// The packet contains Ethernet FCS (frame check sequence) at the end before
// interpacket gap, which we are not interested in.
uint32_t length = std::max(pkt->pkt_len - 4, 0);
buf_ = IOBuf::takeOwnership(
pkt->pkt_data->data, // void* buf
length,
freeRxBuf, // FreeFunction freeFn
reinterpret_cast<void*>(unit_)); // void* userData
srcPort_ = PortID(pkt->src_port);
srcVlan_ = VlanID(pkt->vlan);
len_ = length;
}
PortID
StereoNodeImpl::
mapToPortID(MUINT32 const nodeDataType)
{
//hard-coded mapping
switch(nodeDataType)
{
case STEREO_SRC:
return IMGI;
break;
case STEREO_IMG:
return IMG3O;
break;
case STEREO_FEO:
return FEO;
break;
case STEREO_RGB:
return WDMAO;
default:
break;
}
return PortID();
}
MBOOL
ImageTransform::
execute(
ImgBufInfo const rSrcBufInfo,
ImgBufInfo const rDstBufInfo,
Rect const rROI,
MUINT32 const u4Rotation,
MUINT32 const u4Flip,
MUINT32 const u4TimeOutInMs
)
{
FUNCTION_LOG_START;
MtkCamUtils::CamProfile profile("execute", "ImageTransform");
if (!lock(u4TimeOutInMs))
{
MY_LOGE("[execute] lock fail ");
return MFALSE;
}
// (1). Create Instance
#warning [TODO] sensor type ???
ICdpPipe *pCdpPipe = ICdpPipe::createInstance(eSWScenarioID_CAPTURE_NORMAL, eScenarioFmt_RAW);
CHECK_OBJECT(pCdpPipe);
//
if (pCdpPipe != NULL)
{
MY_LOGD("Pipe (Name, ID) = (%s, %d)", pCdpPipe->getPipeName(), pCdpPipe->getPipeId());
}
// (2). Query port property
vector<PortProperty> rInPortProperty;
vector<PortProperty> rOutPortProperty;
if (pCdpPipe->queryPipeProperty(rInPortProperty,rOutPortProperty))
{
MY_LOGD("Port Property (IN, OUT): (%d, %d)", rInPortProperty.size(), rOutPortProperty.size());
for (MUINT32 i = 0; i < rInPortProperty.size(); i++)
{
MY_LOGD("IN: (type, index, inout, fmt, rot, flip) = (%d, %d, %d, %d, %d, %d)",
rInPortProperty.at(i).type, rInPortProperty.at(i).index, rInPortProperty.at(i).inout,
rInPortProperty.at(i).u4SupportFmt, rInPortProperty.at(i).fgIsSupportRotate, rInPortProperty.at(i).fgIsSupportFlip);
}
for (MUINT32 i = 0; i < rOutPortProperty.size(); i++)
{
MY_LOGD("IN: (type, index, inout, fmt, rot, flip) = (%d, %d, %d, %d, %d, %d)",
rOutPortProperty.at(i).type, rOutPortProperty.at(i).index, rOutPortProperty.at(i).inout,
rOutPortProperty.at(i).u4SupportFmt, rOutPortProperty.at(i).fgIsSupportRotate, rOutPortProperty.at(i).fgIsSupportFlip);
}
}
// (3). init
pCdpPipe->init();
// (4). setCallback
pCdpPipe->setCallbacks(NULL, NULL, NULL);
// (5). Config pipe
//
MemoryInPortInfo rMemInPort(ImgInfo(rSrcBufInfo.eImgFmt, rSrcBufInfo.u4ImgWidth, rSrcBufInfo.u4ImgHeight),
0, rSrcBufInfo.u4Stride, Rect(rROI.x, rROI.y, rROI.w, rROI.h));
//
MemoryOutPortInfo rVdoPort(ImgInfo(rDstBufInfo.eImgFmt, rDstBufInfo.u4ImgWidth, rDstBufInfo.u4ImgHeight),
rDstBufInfo.u4Stride, u4Rotation, u4Flip);
rVdoPort.index = 1;
//
vector<PortInfo const*> vCdpInPorts;
vector<PortInfo const*> vCdpOutPorts;
//
vCdpInPorts.push_back(&rMemInPort);
vCdpOutPorts.push_back(&rVdoPort);
//
pCdpPipe->configPipe(vCdpInPorts, vCdpOutPorts);
// (6). Enqueue, In buf
//
QBufInfo rInBuf;
rInBuf.vBufInfo.clear();
BufInfo rBufInfo(rSrcBufInfo.u4BufSize, rSrcBufInfo.u4BufVA, rSrcBufInfo.u4BufPA, rSrcBufInfo.i4MemID);
rInBuf.vBufInfo.push_back(rBufInfo);
pCdpPipe->enqueBuf(PortID(EPortType_MemoryIn, 0, 0), rInBuf);
//
QBufInfo rOutBuf;
rOutBuf.vBufInfo.clear();
rBufInfo.u4BufSize = rDstBufInfo.u4BufSize;
rBufInfo.u4BufVA = rDstBufInfo.u4BufVA;
rBufInfo.u4BufPA = rDstBufInfo.u4BufPA;
rBufInfo.i4MemID = rDstBufInfo.i4MemID;
//rBufInfo.eMemType = rDstBufInfo.eMemType;
rOutBuf.vBufInfo.push_back(rBufInfo);
pCdpPipe->enqueBuf(PortID(EPortType_MemoryOut, 1, 1), rOutBuf);
//
profile.print();
// (7). start
pCdpPipe->start();
// (8). Dequeue Vdo Out Buf
QTimeStampBufInfo rQVdoOutBuf;
pCdpPipe->dequeBuf(PortID(EPortType_MemoryOut, 1, 1), rQVdoOutBuf);
// (8.1) Dequeue In Buf
QTimeStampBufInfo rQInBUf;
pCdpPipe->dequeBuf(PortID(EPortType_MemoryIn, 0, 0), rQInBUf);
// (9). Stop
pCdpPipe->stop();
// (10). uninit
pCdpPipe->uninit();
// (11). destory instance
pCdpPipe->destroyInstance();
unlock();
profile.print();
//
return 0;
}
void Vlan::addPort(PortID id, bool tagged) {
writableFields()->ports.insert(make_pair(id, PortID(tagged)));
}
PortID PortID::operator++ (int) {
return PortID(mValue++);
}
MBOOL
ImageTransform::
execute(
ImgBufInfo const rSrcBufInfo,
ImgBufInfo const rDstBufInfo,
Rect const rROI,
MUINT32 const u4Rotation,
MUINT32 const u4Flip,
MUINT32 const u4TimeOutInMs
)
{
#define CHECK_RET(x, str) \
do{ \
if ( !(ret) ){ \
MY_LOGE("fail at %s", str); \
if( bInit ) \
{ \
pXdpPipe->uninit(); \
} \
if( pXdpPipe ) \
{ \
pXdpPipe->destroyInstance(); \
} \
unlock(); \
return MFALSE; \
} \
}while(0)
FUNCTION_LOG_START;
MtkCamUtils::CamProfile profile("execute", "ImageTransform");
if (!lock(u4TimeOutInMs))
{
MY_LOGE("[execute] lock fail ");
return MFALSE;
}
MBOOL ret = MTRUE;
MBOOL bInit = MFALSE;
// (1). Create Instance
#warning [TODO] sensor type ???
IXdpPipe *pXdpPipe = IXdpPipe::createInstance(eSWScenarioID_CAPTURE_NORMAL, eScenarioFmt_RAW); //eScenarioFmt_RAW is never used?
CHECK_OBJECT(pXdpPipe);
//
if (pXdpPipe != NULL)
{
MY_LOGD("Pipe (Name, ID) = (%s, %d)", pXdpPipe->getPipeName(), pXdpPipe->getPipeId());
}
// (2). Query port property
//vector<PortProperty> rInPortProperty;
//vector<PortProperty> rOutPortProperty;
//if (pXdpPipe->queryPipeProperty(rInPortProperty,rOutPortProperty))
//{
// MY_LOGD("Port Property (IN, OUT): (%d, %d)", rInPortProperty.size(), rOutPortProperty.size());
// for (MUINT32 i = 0; i < rInPortProperty.size(); i++)
// {
// MY_LOGD("IN: (type, index, inout, fmt, rot, flip) = (%d, %d, %d, %d, %d, %d)",
// rInPortProperty.at(i).type, rInPortProperty.at(i).index, rInPortProperty.at(i).inout,
// rInPortProperty.at(i).u4SupportFmt, rInPortProperty.at(i).fgIsSupportRotate, rInPortProperty.at(i).fgIsSupportFlip);
// }
// for (MUINT32 i = 0; i < rOutPortProperty.size(); i++)
// {
// MY_LOGD("IN: (type, index, inout, fmt, rot, flip) = (%d, %d, %d, %d, %d, %d)",
// rOutPortProperty.at(i).type, rOutPortProperty.at(i).index, rOutPortProperty.at(i).inout,
// rOutPortProperty.at(i).u4SupportFmt, rOutPortProperty.at(i).fgIsSupportRotate, rOutPortProperty.at(i).fgIsSupportFlip);
// }
//}
// (3). init
ret = pXdpPipe->init();
CHECK_RET(ret,"init");
bInit = MTRUE;
// (4). setCallback
pXdpPipe->setCallbacks(NULL, NULL, NULL);
// (5). Config pipe
//
MemoryInPortInfo rMemInPort(ImgInfo(rSrcBufInfo.eImgFmt, rSrcBufInfo.u4ImgWidth, rSrcBufInfo.u4ImgHeight),
0, rSrcBufInfo.u4Stride, Rect(rROI.x, rROI.y, rROI.w, rROI.h));
//
MemoryOutPortInfo rVdoPort(ImgInfo(rDstBufInfo.eImgFmt, rDstBufInfo.u4ImgWidth, rDstBufInfo.u4ImgHeight),
rDstBufInfo.u4Stride, u4Rotation, u4Flip);
rVdoPort.index = 1;
//
vector<PortInfo const*> vXdpInPorts;
vector<PortInfo const*> vXdpOutPorts;
//
vXdpInPorts.push_back(&rMemInPort);
vXdpOutPorts.push_back(&rVdoPort);
//
ret = pXdpPipe->configPipe(vXdpInPorts, vXdpOutPorts);
CHECK_RET(ret,"config");
// (6). Enqueue, In buf
//
QBufInfo rInBuf;
rInBuf.vBufInfo.clear();
BufInfo rBufInfo(rSrcBufInfo.u4BufSize, rSrcBufInfo.u4BufVA, rSrcBufInfo.u4BufPA, rSrcBufInfo.i4MemID);
rInBuf.vBufInfo.push_back(rBufInfo);
ret = pXdpPipe->enqueBuf(PortID(EPortType_MemoryIn, 0, 0), rInBuf);
//
QBufInfo rOutBuf;
rOutBuf.vBufInfo.clear();
rBufInfo.u4BufSize = rDstBufInfo.u4BufSize;
rBufInfo.u4BufVA = rDstBufInfo.u4BufVA;
rBufInfo.u4BufPA = rDstBufInfo.u4BufPA;
rBufInfo.i4MemID = rDstBufInfo.i4MemID;
//rBufInfo.eMemType = rDstBufInfo.eMemType;
rOutBuf.vBufInfo.push_back(rBufInfo);
ret = pXdpPipe->enqueBuf(PortID(EPortType_MemoryOut, 1, 1), rOutBuf);
CHECK_RET(ret,"enqueBuf");
//
profile.print();
// (7). start
ret = pXdpPipe->start();
CHECK_RET(ret,"start");
// (8). Dequeue Vdo Out Buf
QTimeStampBufInfo rQVdoOutBuf;
ret = pXdpPipe->dequeBuf(PortID(EPortType_MemoryOut, 1, 1), rQVdoOutBuf);
CHECK_RET(ret,"dequeBuf");
// (8.1) Dequeue In Buf
QTimeStampBufInfo rQInBUf;
ret = pXdpPipe->dequeBuf(PortID(EPortType_MemoryIn, 0, 0), rQInBUf);
CHECK_RET(ret,"dequeBuf");
// (9). Stop
ret = pXdpPipe->stop();
CHECK_RET(ret,"stop");
#undef CHECK_RET
// (10). uninit
if( bInit )
{
ret = pXdpPipe->uninit();
if( !ret )
{
if( pXdpPipe )
{
pXdpPipe->destroyInstance();
}
return MFALSE;
}
}
// (11). destory instance
if( pXdpPipe )
{
pXdpPipe->destroyInstance();
}
ret = unlock();
profile.print();
//
return ret;
}
MBOOL
StereoNodeImpl::
handleP2Done(QParams& rParams)
{
CAM_TRACE_CALL();
CAM_TRACE_FMT_BEGIN("deqP2:%d", muDeqFrameCnt);
MBOOL ret = MFALSE;
MBOOL isZoom = (rParams.mvCropRsInfo[0].mCropRect.p_integral.x != 0) ? MTRUE : MFALSE;
Vector<Input>::const_iterator iterIn;
Vector<Output>::const_iterator iterOut;
Vector<ModuleInfo>::const_iterator iterMInfo;
//
MY_LOGD("cnt %d in(%d) out(%d) moduleData(%d) isZoom(%d)",
muDeqFrameCnt,
rParams.mvIn.size(),
rParams.mvOut.size(),
rParams.mvModuleData.size(),
isZoom);
//
if( !mpIspSyncCtrlHw->unlockHw(IspSyncControlHw::HW_PASS2) )
{
MY_LOGE("isp sync unlock pass2 failed");
goto lbExit;
}
//
for( iterIn = rParams.mvIn.begin(); iterIn != rParams.mvIn.end(); iterIn++ )
{
PortID portId = iterIn->mPortID;
portId.group = 0;
MUINT32 nodeDataType = mapToNodeDataType( portId );
MY_LOGD("In PortID(0x%08X), nodeData(%d)",portId, nodeDataType);
handleReturnBuffer( nodeDataType, (MUINTPTR)iterIn->mBuffer);
}
//
for( iterOut = rParams.mvOut.begin(); iterOut != rParams.mvOut.end(); iterOut++ )
{
PortID portId = iterOut->mPortID;
portId.group = 0;
MUINT32 nodeDataType = mapToNodeDataType( portId );
MY_LOGD("Out PortID(0x%08X), nodeData(%d), bufInfo(0x%x), va/pa(0x%x/0x%x), ID(%d)",
portId, nodeDataType, iterOut->mBuffer, iterOut->mBuffer->getBufVA(0), iterOut->mBuffer->getBufPA(0), iterOut->mBuffer->getFD());
handlePostBuffer( nodeDataType, (MUINTPTR)iterOut->mBuffer, (MUINT32)isZoom );
}
for( iterMInfo = rParams.mvModuleData.begin(); iterMInfo != rParams.mvModuleData.end(); iterMInfo++ )
{
if ( iterMInfo->moduleTag == EFeatureModule_STA_FEO )
{
StaData* pModuleData = reinterpret_cast<StaData*>(iterMInfo->moduleStruct);
PortID portId = PortID((EPortType)pModuleData->port_type, pModuleData->port_idx, pModuleData->port_inout);
portId.group = 0;
MUINT32 nodeDataType = mapToNodeDataType( portId );
MY_LOGD("ModuleInfo PortID(0x%08X), nodeData(%d), bufInfo(0x%x), va/pa(0x%x/0x%x), ID(%d)",
portId, nodeDataType, &(pModuleData->bufInfo), pModuleData->bufInfo.virtAddr, pModuleData->bufInfo.phyAddr, pModuleData->bufInfo.memID);
handlePostBuffer( nodeDataType, (MUINTPTR)&pModuleData->bufInfo, (MUINT32)isZoom );
}
}
//
{
Mutex::Autolock lock(mLock);
muDeqFrameCnt++;
mCondDeque.broadcast();
}
//
ret = MTRUE;
lbExit:
CAM_TRACE_FMT_END();
return ret;
}
PortID WedgePlatform::fbossPortForQsfpChannel(int transceiver, int channel) {
return PortID(transceiver * QsfpModule::CHANNEL_COUNT + channel + 1);
}