/** \brief 解析
*
* @remarks 解析
* @see ParseImp
* @return U1
* @param Mesh::Data * pData
* @param std::vector<Mesh::Vertex> & lstVertex
* @param std::vector<Mesh::Face32> & lstFace32
* @param std::vector<Mesh::Face16> & lstFace16
* @param U1 & bUseNormal
* @param U1 & bUseTexCoord
* @param U1 & bUseTangent
* @note
*
**/
virtual U1 Parse( Data* pData,
std::vector<Mesh::Vertex>& lstVertex,
std::vector<Mesh::Face32>& lstFace32,
std::vector<Mesh::Face16>& lstFace16,
U1& bUseNormal,
U1& bUseTexCoord,
U1& bUseTangent)
{
ParseOgre parse;
MemoryDataStream data(pData->GetBuff(),pData->GetSize());
DataStreamPtr dataptr(&data);
OgreMesh mesh;
parse.importMesh(dataptr,&mesh);
UInt iSize = mesh.mSubMeshList.size();
if(iSize==0)
return false;
SubMesh& subMesh = *mesh.mSubMeshList[0];
lstVertex = subMesh.m_lstVertex;
lstFace16 = subMesh.m_lstFace16;
lstFace32 = subMesh.m_lstFace32;
return true;
};
/** Commonly used step to load the USB Client Driver and set up
* a 'useful' default device descriptor set
* @return ETrue if the ldd loaded sucessfully
*/
TBool COtgRoot::StepLoadClient(TUint16 aPID,
TBool aEnableHNP/*=ETrue*/,
TBool aEnableSRP/*=ETrue*/)
{
test.Printf(_L("Load USBCC Client 0x%04x\n"),aPID);
OstTrace1(TRACE_NORMAL, COTGROOT_STEPLOADCLIENT, "Load USBCC Client 0x%04x\n",aPID);
TInt err;
// The incoming PID is expected to have a form of 0x0TTT or 0xFTTT
// where 'TTT' is the test number: if the lead is 0xF000 we now
// overlay an 'A' or a 'B' depending on the default role
if ( ( ( aPID & 0xF000 ) != 0xF000 )
&& ( ( aPID & 0xF000 ) != 0x0000 )
)
{
AssertionFailed(KErrAbort, _L("Bad default PID"));
}
if ( aPID & 0xF000 )
{
aPID &= 0x0FFF;
if ( gTestRoleMaster )
{
// this is the 'B' device
aPID |= 0xB000;
}
else
{
// this is the 'A' device
aPID |= 0xA000;
}
}
// Load the LDD - note the name is *not* the same as for unload
test.Printf(_L("..Load LDD\n"));
OstTrace0(TRACE_NORMAL, COTGROOT_STEPLOADCLIENT_DUP01, "..Load LDD\n");
err = User::LoadLogicalDevice( KUsbcLddFileName );
if ((err != KErrNone) && (err !=KErrAlreadyExists))
{
AssertionFailed2(KErrAbort, _L("Client Load Fail "), err);
return (EFalse);
}
// Open the Client
test.Printf(_L("..Open LDD\n"));
OstTrace0(TRACE_NORMAL, COTGROOT_STEPLOADCLIENT_DUP02, "..Open LDD\n");
err = oUsbcClient.Open(0);
if (err != KErrNone)
{
AssertionFailed2(KErrAbort, _L("Client Open Fail "), err);
return (EFalse);
}
// Set up descriptors
test.Printf(_L("..Setup Descriptors\n"));
OstTrace0(TRACE_NORMAL, COTGROOT_STEPLOADCLIENT_DUP03, "..Setup Descriptors\n");
// the OTG descriptor
TBuf8<KUsbDescSize_Otg> theOtgDescriptor;
err = oUsbcClient.GetOtgDescriptor(theOtgDescriptor);
if (err != KErrNone)
{
AssertionFailed2(KErrAbort, _L("OTG GetDes Fail "), err);
return (EFalse);
}
// modify OTG descriptor based on parameters passed
if (aEnableHNP)
aEnableSRP=ETrue; // Keep the device Legal according to OTG spec 6.4.2
/*Attribute Fields
D7…2: Reserved (reset to zero)
D1: HNP support
D0: SRP support*/
TUint8 aByte = theOtgDescriptor[2];
aByte &= (~0x03);
aByte |= (aEnableSRP? 1 : 0);
aByte |= (aEnableHNP? 2 : 0);
test.Printf(_L("..Change OTG 0x%02X->0x%02X\n"), theOtgDescriptor[2], aByte);
OstTraceExt2(TRACE_NORMAL, COTGROOT_STEPLOADCLIENT_DUP04, "..Change OTG 0x%02X->0x%02X\n", (TUint32)theOtgDescriptor[2], (TUint32)aByte);
theOtgDescriptor[2] = aByte;
err = oUsbcClient.SetOtgDescriptor(theOtgDescriptor);
if (err != KErrNone)
{
AssertionFailed2(KErrAbort, _L("OTG SetDes Fail "), err);
return (EFalse);
}
//
TUsbDeviceCaps d_caps;
err = oUsbcClient.DeviceCaps(d_caps);
TBool softwareConnect;
if (err != KErrNone)
{
AssertionFailed2(KErrAbort, _L("Client DevCaps Fail "), err);
return (EFalse);
}
const TInt n = d_caps().iTotalEndpoints;
softwareConnect = d_caps().iConnect;
test.Printf(_L("..SoftwareConnect = %d\n"),softwareConnect);
OstTrace1(TRACE_NORMAL, COTGROOT_STEPLOADCLIENT_DUP05, "..SoftwareConnect = %d\n",softwareConnect);
if (n < 2)
{
AssertionFailed2(KErrAbort, _L("Client Endpoints Fail "), err);
return (EFalse);
}
// Endpoints
TUsbcEndpointData data[KUsbcMaxEndpoints];
TPtr8 dataptr(reinterpret_cast<TUint8*>(data), sizeof(data), sizeof(data));
err = oUsbcClient.EndpointCaps(dataptr);
if (err != KErrNone)
{
AssertionFailed2(KErrAbort, _L("Client EpCaps Fail "), err);
return (EFalse);
}
// Set up the active interface
TUsbcInterfaceInfoBuf ifc;
TInt ep_found = 0;
TBool foundBulkIN = EFalse;
TBool foundBulkOUT = EFalse;
for (TInt i = 0; i < n; i++)
{
const TUsbcEndpointCaps* const caps = &data[i].iCaps;
const TInt mps = caps->MaxPacketSize();
if (!foundBulkIN &&
(caps->iTypesAndDir & (KUsbEpTypeBulk | KUsbEpDirIn)) ==
(KUsbEpTypeBulk | KUsbEpDirIn))
{
if (!(mps == 64 || mps == 512))
{
}
// EEndpoint1 is going to be our Tx (IN) endpoint
ifc().iEndpointData[0].iType = KUsbEpTypeBulk;
ifc().iEndpointData[0].iDir = KUsbEpDirIn;
ifc().iEndpointData[0].iSize = mps;
foundBulkIN = ETrue;
if (++ep_found == 2)
break;
}
else if (!foundBulkOUT &&
(caps->iTypesAndDir & (KUsbEpTypeBulk | KUsbEpDirOut)) ==
(KUsbEpTypeBulk | KUsbEpDirOut))
{
if (!(mps == 64 || mps == 512))
{
}
// EEndpoint2 is going to be our Rx (OUT) endpoint
ifc().iEndpointData[1].iType = KUsbEpTypeBulk;
ifc().iEndpointData[1].iDir = KUsbEpDirOut;
ifc().iEndpointData[1].iSize = mps;
foundBulkOUT = ETrue;
if (++ep_found == 2)
break;
}
}
if (ep_found != 2)
{
AssertionFailed2(KErrAbort, _L("Client EpFound Fail "), err);
return (EFalse);
}
_LIT16(ifcname, "T_OTGDI Test Interface (Default Setting 0)");
ifc().iString = const_cast<TDesC16*>(&ifcname);
ifc().iTotalEndpointsUsed = 2;
ifc().iClass.iClassNum = 0xff; // vendor-specific
ifc().iClass.iSubClassNum = 0xff; // vendor-specific
ifc().iClass.iProtocolNum = 0xff; // vendor-specific
err = oUsbcClient.SetInterface(0, ifc, (EUsbcBandwidthOUTDefault | EUsbcBandwidthINDefault));
if( err != KErrNone )
{
AssertionFailed2(KErrAbort, _L("Client SetInt Fail "), err);
return (EFalse);
}
// Set the revised PID
TBuf8<KUsbDescSize_Device> theDeviceDescriptor;
err = oUsbcClient.GetDeviceDescriptor(theDeviceDescriptor);
if (err != KErrNone)
{
AssertionFailed2(KErrAbort, _L("Client GetDes Fail "), err);
return (EFalse);
}
TUint16 oldPID = ( theDeviceDescriptor[10] )
+ ( theDeviceDescriptor[11] << 8 );
theDeviceDescriptor[10] = ( aPID & 0x00FF );
theDeviceDescriptor[11] = ( aPID & 0xFF00 ) >> 8;
test.Printf(_L("..Change PID 0x%04X->0x%04X\n"), oldPID, aPID);
OstTraceExt2(TRACE_NORMAL, COTGROOT_STEPLOADCLIENT_DUP06, "..Change PID 0x%04X->0x%04X\n", (TUint32)oldPID, (TUint32)aPID);
err = oUsbcClient.SetDeviceDescriptor(theDeviceDescriptor);
if (err != KErrNone)
{
AssertionFailed2(KErrAbort, _L("Client SetDes Fail "), err);
return (EFalse);
}
// Power Up UDC - KErrNotReady is expected
test.Printf(_L("..Power Up UDC\n"));
OstTrace0(TRACE_NORMAL, COTGROOT_STEPLOADCLIENT_DUP07, "..Power Up UDC\n");
err = oUsbcClient.PowerUpUdc();
if( err != KErrNotReady )
{
AssertionFailed2(KErrAbort, _L("PowerUp UDC Fail "), err);
return (EFalse);
}
// Connect to Host
test.Printf(_L("..Connect to Host\n"));
OstTrace0(TRACE_NORMAL, COTGROOT_STEPLOADCLIENT_DUP08, "..Connect to Host\n");
err = oUsbcClient.DeviceConnectToHost();
if( err != KErrNone )
{
AssertionFailed2(KErrAbort, _L("Host Connect Fail "), err);
return (EFalse);
}
// Default no-problem return
return(ETrue);
}
TInt CCdcDataInterface::SetUpInterface()
/**
* Retrieves the device capabilities and searches for suitable input and
* output bulk endpoints. If suitable endpoints are found, an interface
* descriptor for the endpoints is registered with the LDD.
*/
{
OstTraceFunctionEntry0( CCDCDATAINTERFACE_SETUPINTERFACE_ENTRY );
TUsbDeviceCaps dCaps;
TInt ret = iLdd.DeviceCaps(dCaps);
OstTrace0( TRACE_NORMAL, CCDCDATAINTERFACE_SETUPINTERFACE, "CCdcDataInterface::SetUpInterface;\tchecking result of DeviceCaps" );
if ( ret )
{
OstTrace1( TRACE_NORMAL, CCDCDATAINTERFACE_SETUPINTERFACE_DUP1, "CCdcDataInterface::SetUpInterface;ret=%d", ret );
OstTraceFunctionExit0( CCDCDATAINTERFACE_SETUPINTERFACE_EXIT );
return ret;
}
TInt maxBulkPacketSize = (dCaps().iHighSpeed) ? KMaxPacketTypeBulkHS : KMaxPacketTypeBulkFS;
const TUint KRequiredNumberOfEndpoints = 2;
const TUint totalEndpoints = static_cast<TUint>(dCaps().iTotalEndpoints);
OstTrace1( TRACE_NORMAL, CCDCDATAINTERFACE_SETUPINTERFACE_DUP2,
"CCdcDataInterface::SetUpInterface;totalEndpoints=%d", (TInt)totalEndpoints );
if ( totalEndpoints < KRequiredNumberOfEndpoints )
{
OstTrace1( TRACE_NORMAL, CCDCDATAINTERFACE_SETUPINTERFACE_DUP3, "CCdcDataInterface::SetUpInterface;ret=%d", KErrGeneral );
OstTraceFunctionExit0( CCDCDATAINTERFACE_SETUPINTERFACE_EXIT_DUP1 );
return KErrGeneral;
}
// Endpoints
TUsbcEndpointData data[KUsbcMaxEndpoints];
TPtr8 dataptr(reinterpret_cast<TUint8*>(data), sizeof(data), sizeof(data));
ret = iLdd.EndpointCaps(dataptr);
OstTrace0( TRACE_NORMAL, CCDCDATAINTERFACE_SETUPINTERFACE_DUP9, "CCdcDataInterface::SetUpInterface;\tchecking result of EndpointCaps" );
if ( ret )
{
OstTrace1( TRACE_NORMAL, CCDCDATAINTERFACE_SETUPINTERFACE_DUP4, "CCdcDataInterface::SetUpInterface;ret=%d", ret );
OstTraceFunctionExit0( CCDCDATAINTERFACE_SETUPINTERFACE_EXIT_DUP2 );
return ret;
}
//
TUsbcInterfaceInfoBuf ifc;
TBool foundIn = EFalse;
TBool foundOut = EFalse;
for ( TUint i = 0; !(foundIn && foundOut) && i < totalEndpoints; i++ )
{
const TUsbcEndpointCaps* caps = &data[i].iCaps;
if (!caps)
{
OstTraceExt1( TRACE_FATAL, CCDCDATAINTERFACE_SETUPINTERFACE_DUP5, "CCdcDataInterface::SetUpInterface;caps=%p", caps );
__ASSERT_DEBUG( EFalse, User::Panic(KAcmPanicCat, EPanicInternalError) );
}
if (data[i].iInUse)
continue;
//get the max packet size it can potentially support
//it's possible that it can support Isoch (1023) which is greater
//than max for Bulk at 64
const TInt maxSize = Min ( maxBulkPacketSize,
caps->MaxPacketSize() );
const TUint KBulkInFlags = KUsbEpTypeBulk | KUsbEpDirIn;
const TUint KBulkOutFlags = KUsbEpTypeBulk | KUsbEpDirOut;
// use EEndPoint1 for TX (IN) EEndpoint1
if (! foundIn && (caps->iTypesAndDir & KBulkInFlags) == KBulkInFlags)
{
ifc().iEndpointData[0].iType = KUsbEpTypeBulk;
ifc().iEndpointData[0].iDir = KUsbEpDirIn;
//get the max packet size it can potentially support
//it's possible that it can support Isoch (1023) which is greater
//than max for Bulk at 64
ifc().iEndpointData[0].iSize = maxSize;
foundIn = ETrue;
}
// use EEndPoint2 for RX (OUT) endpoint
else if ( !foundOut
&& (caps->iTypesAndDir & KBulkOutFlags) == KBulkOutFlags
)
{
// EEndpoint2 is going to be our RX (OUT, read) endpoint
ifc().iEndpointData[1].iType = KUsbEpTypeBulk;
ifc().iEndpointData[1].iDir = KUsbEpDirOut;
//get the max packet size it can potentially support
//it's possible that it can support Isoch (1023) which is greater
//than max for Bulk at 64
ifc().iEndpointData[1].iSize = maxSize;
foundOut = ETrue;
}
}
if (! (foundIn && foundOut))
{
OstTrace1( TRACE_NORMAL, CCDCDATAINTERFACE_SETUPINTERFACE_DUP6, "CCdcDataInterface::SetUpInterface;ret=%d", KErrGeneral );
OstTraceFunctionExit0( CCDCDATAINTERFACE_SETUPINTERFACE_EXIT_DUP3 );
return KErrGeneral;
}
// If the device supports USB High-speed, then we request 64KB buffers
// (otherwise the default 4KB ones will do).
TUint bandwidthPriority = (EUsbcBandwidthOUTDefault | EUsbcBandwidthINDefault);
if (dCaps().iHighSpeed)
{
bandwidthPriority = (EUsbcBandwidthOUTPlus2 | EUsbcBandwidthINPlus2);
}
ifc().iString = &iIfcName;
ifc().iTotalEndpointsUsed = KRequiredNumberOfEndpoints;
ifc().iClass.iClassNum = 0x0A; // Table 18- Data Interface Class
ifc().iClass.iSubClassNum = 0x00; // Section 4.6- unused.
ifc().iClass.iProtocolNum = 0x00; // Table 19- no class specific protocol required
// Indicate that this interface does not expect any control transfers
// from EP0.
ifc().iFeatureWord |= KUsbcInterfaceInfo_NoEp0RequestsPlease;
OstTrace0( TRACE_NORMAL, CCDCDATAINTERFACE_SETUPINTERFACE_DUP7, "CCdcDataInterface::SetUpInterface;\tcalling SetInterface" );
// Zero effectively indicates that alternate interfaces are not used.
ret = iLdd.SetInterface(0, ifc, bandwidthPriority);
OstTrace1( TRACE_NORMAL, CCDCDATAINTERFACE_SETUPINTERFACE_DUP8, "CCdcDataInterface::SetUpInterface;ret=%d", ret );
OstTraceFunctionExit0( CCDCDATAINTERFACE_SETUPINTERFACE_EXIT_DUP4 );
return ret;
}
