DLL(CommandLine) *CommandLine :: GetEntryPoint (char *names, uint16 *posptr, logical recursive )
{
char name[64];
CommandLine *cmdline;
CLEntryPoint *clep;
DLL(CommandLine) *cmdlist;
BEGINSEQ
if ( !entry_points ) ERROR
gvtxstb(name,names,sizeof(name));
*posptr = USHORTMAX;
if ( clep = entry_points->GetEntry(name) )
{
*posptr = clep->get_cmd_pos();
cmdlist = clep->get_cmd_list();
}
else if ( recursive )
{
DLL(CommandLine) cursor(*cmd_list);
cursor.GoTop();
while ( cmdline = cursor.GetNext() )
if ( cmdlist = cmdline->GetEntryPoint(names,posptr,recursive) )
break;
}
RECOVER
cmdlist = NULL;
ENDSEQ
return(cmdlist);
}
/**
* \brief ターゲットのシリアル初期化
* \param siopid SIOのポートID
* \details
* siopidで指定されるターゲットのSIOペリフェラルを初期化する。初期化するのは、ストップビットやビット数といった
* プロトコルのほか、ボーレートも含む。この館数は、target_initialize() 関数からも呼び出され、バナー出力用の
* ポート初期化に使用される。
*
* ボーレートの設定にはUARTへ供給されるクロック周波数の設定が必要であるが、これは全UARTで共通であると
* 仮定して決めうちしている。周波数はSIO_UART_CLOCKで指定する。単位はHzである。また、ボーレートは
*
* SIO_BAUD_RATE_DEFAULTに設定されるが、上書きしたければSIOx_BAUD_RATEを宣言する。単位はBAUDである。
*/
void target_uart_init(ID siopid)
{
uint32_t reg = sioreg_table[SIOPID2INDEX(siopid)]; /* 使用するUARTのベースアドレスを取得 */
/* UARTの無効化 */
uart_write( reg, UART_LCR, 0 ); /* DLAB モードをいったんクリアする */
uart_write( reg, UART_FCR, 0 ); /* FIFO クリア*/
uart_write( reg, UART_IER, 0 ); /* 割り込みをディセーブルにする */
/* ボーレートの設定 */
uart_write( reg, UART_LCR, LCR_DLAB ); /* ディバイザ設定モードに移行 */
switch (siopid) {
case 1:
#if defined(SIO_BAUD_RATE_PORT1)
uart_write( reg, UART_DLL, DLL((SIO_UART_CLOCK/SIO_BAUD_RATE_PORT1/16)) );
uart_write( reg, UART_DLM, DLM((SIO_UART_CLOCK/SIO_BAUD_RATE_PORT1/16)) );
#else
uart_write( reg, UART_DLL, DLL((SIO_UART_CLOCK/SIO_BAUD_RATE_DEFAULT/16)) );
uart_write( reg, UART_DLM, DLM((SIO_UART_CLOCK/SIO_BAUD_RATE_DEFAULT/16)) );
#endif
break;
case 2:
#if defined(SIO_BAUD_RATE_PORT2)
uart_write( reg, UART_DLL, DLL((SIO_UART_CLOCK/SIO_BAUD_RATE_PORT2/16)) );
uart_write( reg, UART_DLM, DLM((SIO_UART_CLOCK/SIO_BAUD_RATE_PORT2/16)) );
#else
uart_write( reg, UART_DLL, DLL((SIO_UART_CLOCK/SIO_BAUD_RATE_DEFAULT/16)) );
uart_write( reg, UART_DLM, DLM((SIO_UART_CLOCK/SIO_BAUD_RATE_DEFAULT/16)) );
#endif
break;
case 3:
#if defined(SIO_BAUD_RATE_PORT3)
uart_write( reg, UART_DLL, DLL((SIO_UART_CLOCK/SIO_BAUD_RATE_PORT3/16)) );
uart_write( reg, UART_DLM, DLM((SIO_UART_CLOCK/SIO_BAUD_RATE_PORT3/16)) );
#else
uart_write( reg, UART_DLL, DLL((SIO_UART_CLOCK/SIO_BAUD_RATE_DEFAULT/16)) );
uart_write( reg, UART_DLM, DLM((SIO_UART_CLOCK/SIO_BAUD_RATE_DEFAULT/16)) );
#endif
break;
case 4:
#if defined(SIO_BAUD_RATE_PORT4)
uart_write( reg, UART_DLL, DLL((SIO_UART_CLOCK/SIO_BAUD_RATE_PORT4/16)) );
uart_write( reg, UART_DLM, DLM((SIO_UART_CLOCK/SIO_BAUD_RATE_PORT4/16)) );
#else
uart_write( reg, UART_DLL, DLL((SIO_UART_CLOCK/SIO_BAUD_RATE_DEFAULT/16)) );
uart_write( reg, UART_DLM, DLM((SIO_UART_CLOCK/SIO_BAUD_RATE_DEFAULT/16)) );
#endif
break;
}
/* デバイザ設定モードから、通常モードに戻す */
uart_write( reg, UART_LCR, 0 ); /* 通常モードに移行 */
/* プロトコルを設定。8bit, 1stop bit, parityなし */
uart_write( reg, UART_LCR, LCR_NP_8_1 ); /* 通常モードに移行 */
}
void serial_setbrg (void)
{
unsigned int quot = 0;
int uart = CONFIG_SYS_IXP425_CONSOLE;
if ((gd->baudrate <= SERIAL_CLOCK) && (SERIAL_CLOCK % gd->baudrate == 0))
quot = SERIAL_CLOCK / gd->baudrate;
else
hang ();
IER(uart) = 0; /* Disable for now */
FCR(uart) = 0; /* No fifos enabled */
/* set baud rate */
LCR(uart) = LCR_WLS0 | LCR_WLS1 | LCR_DLAB;
DLL(uart) = quot & 0xff;
DLH(uart) = quot >> 8;
LCR(uart) = LCR_WLS0 | LCR_WLS1;
#ifdef CONFIG_SERIAL_RTS_ACTIVE
MCR(uart) = MCR_RTS; /* set RTS active */
#else
MCR(uart) = 0; /* set RTS inactive */
#endif
IER(uart) = IER_UUE;
}
static void uart_init_line(int port, unsigned long baud)
{
int i, baudconst;
switch (baud) {
case 115200:
baudconst = 1;
break;
case 57600:
baudconst = 2;
break;
case 38400:
baudconst = 3;
break;
case 19200:
baudconst = 6;
break;
case 9600:
default:
baudconst = 12;
break;
}
outb(0x87, LCR(port));
outb(0x00, DLM(port));
outb(baudconst, DLL(port));
outb(0x07, LCR(port));
outb(0x0f, MCR(port));
for (i = 10; i > 0; i--) {
if (inb(LSR(port)) == (unsigned int) 0)
break;
inb(RBR(port));
}
}
logical CACObject :: CloseObject ( )
{
logical term = YES;
#ifndef IF_Class // client version
DLL(CNode) *nodelist;
CNode *cnodeptr;
ACObject *objptr;
if ( IsValid() )
{
ACObject::CloseObject();
if ( nodelist = topnode_list )
{
topnode_list = NULL;
while ( cnodeptr = nodelist->RemoveTail() )
{
cnodeptr->Switch(AUTO);
delete cnodeptr;
}
delete nodelist;
}
while ( objptr = object_list->GetTail() )
delete objptr;
if ( (ACObject *)db_handle != (ACObject *)this && GetServerObject() )
{
LockSendParms().Fill();
CConnection()->SendCSMessage(this,S_CACObject,SF_CACObject_CloseObject_ci);
UnlockSendParms();
UninitHandle();
}
}
return(term);
#else // server version
((SC_DBObject *)cso_ptr)->SetClientObject(0);
((SC_DBObject *)cso_ptr)->Remove();
result->Fill();
return(NO);
#endif
}
static void fpga_reset(int iobase)
{
outb(0, IER(iobase));
outb(LCR_DLAB | LCR_BIT5, LCR(iobase));
outb(1, DLL(iobase));
outb(0, DLM(iobase));
outb(LCR_BIT5, LCR(iobase));
inb(LSR(iobase));
inb(MSR(iobase));
/* turn off FPGA supply voltage */
outb(MCR_OUT1 | MCR_OUT2, MCR(iobase));
delay(100);
/* turn on FPGA supply voltage again */
outb(MCR_DTR | MCR_RTS | MCR_OUT1 | MCR_OUT2, MCR(iobase));
delay(100);
}
static inline void ser12_set_divisor(struct net_device *dev,
unsigned char divisor)
{
outb(0x81, LCR(dev->base_addr)); /* DLAB = 1 */
outb(divisor, DLL(dev->base_addr));
outb(0, DLM(dev->base_addr));
outb(0x01, LCR(dev->base_addr)); /* word length = 6 */
/*
* make sure the next interrupt is generated;
* 0 must be used to power the modem; the modem draws its
* power from the TxD line
*/
outb(0x00, THR(dev->base_addr));
/*
* it is important not to set the divider while transmitting;
* this reportedly makes some UARTs generating interrupts
* in the hundredthousands per second region
* Reported by: [email protected] (Ignacio Arenaza Nuno)
*/
}
static void yam_set_uart(struct net_device *dev)
{
struct yam_port *yp = netdev_priv(dev);
int divisor = 115200 / yp->baudrate;
outb(0, IER(dev->base_addr));
outb(LCR_DLAB | LCR_BIT8, LCR(dev->base_addr));
outb(divisor, DLL(dev->base_addr));
outb(0, DLM(dev->base_addr));
outb(LCR_BIT8, LCR(dev->base_addr));
outb(PTT_OFF, MCR(dev->base_addr));
outb(0x00, FCR(dev->base_addr));
/* Flush pending irq */
inb(RBR(dev->base_addr));
inb(MSR(dev->base_addr));
/* Enable rx irq */
outb(ENABLE_RTXINT, IER(dev->base_addr));
}
\param bcOWindow
\param bcODataSourceHaving
\param subApplications
\param subApplicationsRead
\param sobject
\param ilanguage
\param odatabase
*/
/******************************************************************************/
#undef MOD_ID
#define MOD_ID "OApplication"
OApplication :: OApplication (OWindow bcOWindow, ODataSourceHaving bcODataSourceHaving, DLL(OApplication) subApplications, logical subApplicationsRead, char *sobject, int ilanguage, ODB_Definition odatabase )
: OWindow(bcOWindow)
,ODataSourceHaving(bcODataSourceHaving)
,subApplications(subApplications)
,subApplicationsRead(subApplicationsRead)
,object(NULL) // strdup
,language(ilanguage)
,database(odatabase)
{
if (sobject)
object = strdup(sobject);
/*
OApplication ("
+ ADK_Window::Generate()
+ ", " + data_source.Generate()
+ ", " + subApplications + "
/**
\brief i01
\param bcOEventAction_intern
\param iEAType
\param pOField
\param pOEventActions
\param pOSubEventActions
*/
/******************************************************************************/
#undef MOD_ID
#define MOD_ID "OEventActionControl"
OEventActionControl :: OEventActionControl (OEventAction_intern bcOEventAction_intern, int16 iEAType, OField *pOField, DLL(OEventAction) *pOEventActions, DLL(OEventAction) *pOSubEventActions )
: OEventAction_intern(bcOEventAction_intern)
,type((EventActionType)iEAType)
,action_field(pOField)
,group_actions(pOEventActions)
,sub_actions(pOSubEventActions)
{
/*
"OEventActionControl("
+ ADK_EventAction_intern::Generate()
+ ", " + type
+ ", " + action_field.GenerateList()
+ ", " + sub_actions.GenerateList()
+ ", " + group_actions.GenerateList()
+ ")";
*/
/******************************************************************************/
/**
\brief ResetActions -
\param action_list -
*/
/******************************************************************************/
#undef MOD_ID
#define MOD_ID "ResetActions"
void OElementStyle :: ResetActions (DLL(OEventAction) *action_list )
{
OEventAction *action;
if ( action_list )
while ( action = action_list->RemoveTail() )
action->Release();
}
/******************************************************************************/
/**
\brief SetStyle -
/******************************************************************************/
/**
\brief i01
\param children_list
\param delete_on_destroy
\param component_state
\param component_owner
*/
/******************************************************************************/
#undef MOD_ID
#define MOD_ID "TBaseComponent"
TBaseComponent :: TBaseComponent (DLL(TBaseComponent) children_list, logical delete_on_destroy, int component_state, TBaseComponent *component_owner )
: deleteOnDestroy(delete_on_destroy),
componentState(component_state)
{
/*
??
"TBaseComponent("
+ " children_list"
+ ", " + "NO"
+ ", 0"
+ ", NULL"
+ ")";
*/
}
int main(int argc, char *argv[]) {
unsigned i;
const char * InFile, * BaseName;
if(argc != 2 || !strcmp(argv[1], "-h") || !strcmp(argv[1], "--help")) {
printf("Usage: rtti-reader infile\n"
"Extract class information from an EXE or DLL using MSVC RTTI.\n"
"\n"
"Report bugs to <*****@*****.**>.\n"
"rtti-reader is maintained by the Niotso project.\n"
"Home page: <http://www.niotso.org/>\n");
return 0;
}
InFile = argv[1];
int slash;
for(i=0, slash=-1; InFile[i]; i++)
if(InFile[i] == '/' || InFile[i] == '\\') slash = i;
BaseName = InFile + slash + 1;
PEFile DLL(InFile);
if(DLL.read16() != 0x5A4D) //"MZ"
Shutdown_M("Not a valid Windows PE file");
DLL.seek(60);
DLL.seek(DLL.read32(), 6);
unsigned SegmentCount = DLL.read16();
DLL.skip(12);
unsigned OptionalHeaderSize = DLL.read16();
DLL.skip(30);
unsigned ImageBase = DLL.read32();
DLL.skip(OptionalHeaderSize, -32);
for(i=0; i<SegmentCount; i++) {
if(!DLL.strcmp(".rdata")) {
DLL.skip(16);
DLL.rdata.size = DLL.read32();
DLL.rdata.offset = DLL.read32();
DLL.skip(16);
} else if(!DLL.strcmp(".data")) {
DLL.skip(16);
DLL.data.size = DLL.read32();
DLL.data.offset = DLL.read32();
DLL.skip(16);
} else DLL.skip(40);
}
if(DLL.rdata.size == 0)
Shutdown_M("Missing .rdata segment");
else if(DLL.data.size == 0)
Shutdown_M("Missing .data segment");
else if(DLL.rdata.size > UINT_MAX-DLL.rdata.offset || DLL.rdata.size+DLL.rdata.offset > DLL.brc.end)
Shutdown_M(".rdata segment is invalid");
else if(DLL.data.size > UINT_MAX-DLL.data.offset || DLL.data.size+DLL.data.offset > DLL.brc.end)
Shutdown_M(".data segment is invalid");
printf("\n****\n** [ 1 of 2] RTTI Report for %s\n****\n", BaseName);
RTTIVector<RTTIClass> RCL;
RCL.init();
DLL.lookat(DLL.data);
unsigned TotalClassCount = 0;
while(DLL.skip(8) && DLL.memfind(".?AV", 4, PEFile::Parse_QuestionMark)) {
TotalClassCount++;
size_t length = DLL.strlen();
if(length == (unsigned)-1)
Shutdown_M("Unexpectedly reached end of binary");
size_t TDAddress = DLL.brc.position + ImageBase - 8, datapos = DLL.brc.position + length + 1;
DLL.lookat(DLL.rdata);
RTTIClass * RCPointer = NULL;
for(size_t rdatapos = DLL.brc.position + 12;
DLL.seek(rdatapos) && DLL.find32(TDAddress); rdatapos += 4, DLL.lookat(DLL.rdata)) {
//Find all complete object locators that belong to this class
rdatapos = DLL.brc.position;
if(!DLL.skip(4))
continue;
size_t CDAddress = DLL.read32() - ImageBase;
if(CDAddress < DLL.brc.start || CDAddress > DLL.brc.end-4)
continue; //This was a base class descriptor
//Add this COL to our respective RTTIClass
bool newclass = false;
if(RCPointer == NULL) {
//This is a new class; add it to the RCL
newclass = true;
RTTIClass& RC = RCL.add();
RCPointer = &RC;
RC.init();
}
RTTIClass& RC = *RCPointer;
RTTICompleteObjectLocator& COL = RC.COLL.add();
DLL.seek(rdatapos,-12);
size_t COLAddress = DLL.brc.position + ImageBase;
if(!DLL.Fill(COL))
Shutdown_M("Unexpectedly reached end of binary");
DLL.lookat(DLL.rdata);
COL.VTableAddress = (DLL.find32(COLAddress)) ? DLL.brc.position + ImageBase + 4 : (uint32_t)-1;
if(newclass) {
if(!DLL.seek(COL.Fields.ClassDescriptorAddress - ImageBase))
Shutdown_M("Unexpectedly reached end of binary");
RTTIClassHierarchyDescriptor& CHD = RC.CHD;
if(!DLL.Fill(CHD))
Shutdown_M("Unexpectedly reached end of binary");
if(!DLL.seek(CHD.Fields.BaseClassListAddress - ImageBase))
Shutdown_M("Unexpectedly reached end of binary");
size_t bcdlpos;
for(i=0, bcdlpos = DLL.brc.position; i<CHD.Fields.BaseClassCount; i++, bcdlpos+=4) {
DLL.lookat(DLL.rdata);
if(!DLL.seek(bcdlpos))
Shutdown_M("Unexpectedly reached end of binary");
uint32_t BCDAddress = DLL.read32();
if(!DLL.seek(BCDAddress - ImageBase))
Shutdown_M("Unexpectedly reached end of binary");
RTTIBaseClassDescriptor& BCD = CHD.BCDL.add();
if(!DLL.Fill(BCD))
Shutdown_M("Unexpectedly reached end of binary");
DLL.lookat(DLL.data);
if(!DLL.seek(BCD.Fields.TypeDescriptorAddress - ImageBase))
Shutdown_M("Unexpectedly reached end of binary");
if(!DLL.Fill(BCD.TD))
Shutdown_M("Unexpectedly reached end of binary");
length = DLL.strlen();
if(length == (unsigned)-1)
Shutdown_M("Unexpectedly reached end of binary");
BCD.TD.Name = (char*) malloc(length+1);
BCD.TD.UnmangledName = (char*) malloc(length+1-6);
if(!BCD.TD.Name || !BCD.TD.UnmangledName)
Shutdown_M("Failed to allocate memory");
DLL.strcpy(BCD.TD.Name);
for(size_t j=0; j<length-6; j++) {
char c = BCD.TD.Name[j+4];
BCD.TD.UnmangledName[j] = (
(c >= 'A' && c <= 'Z') || (c >= 'a' && c <= 'z') ||
(c >= '0' && c <= '9') || c == '_')
? c : ' ';
}
BCD.TD.UnmangledName[length-6] = '\0';
if(newclass) {
newclass = false;
memcpy(&RC.TD, &BCD.TD, sizeof(RTTITypeDescriptor));
}
}
}
}
DLL.lookat(DLL.data);
DLL.seek(datapos);
}
for (i=0; i<RCL.Count; i++) {
RTTIClass& RC = RCL.Buffer[i];
RTTIClassHierarchyDescriptor& CHD = RC.CHD;
printf("\nClass %s (mangled: %s)\n", RC.TD.UnmangledName, RC.TD.Name);
printf(" * Class Hierarchy Descriptor: (Address %08X)\n", CHD.Fields.Address + ImageBase);
printf(" * Reserved: %u\n", CHD.Fields.Reserved);
printf(" * Attributes: %u\n", CHD.Fields.Attributes);
printf(" * Base class count: %u\n", CHD.Fields.BaseClassCount);
printf(" * Base class list address: %08X\n", CHD.Fields.BaseClassListAddress);
for(uint32_t j=0; j<CHD.Fields.BaseClassCount; j++) {
RTTIBaseClassDescriptor& BCD = CHD.BCDL.Buffer[j];
printf(" * Base class descriptor #%u: (Address %08X)\n", j, BCD.Fields.Address + ImageBase);
printf(" * Base class count: %u\n", BCD.Fields.BaseClassCount);
printf(" * Member offset: %d\n", BCD.Fields.MemberOffset);
printf(" * COL address offset: %d\n", BCD.Fields.COLAddressOffset);
printf(" * v-table offset: %d\n", BCD.Fields.VTableOffset);
printf(" * Attributes: %u\n", BCD.Fields.Attributes);
printf(" * Type descriptor: (Address %08X)\n", BCD.Fields.TypeDescriptorAddress);
printf(" * v-table address: %08X\n", BCD.TD.Fields.VTableAddress);
printf(" * Reserved: %u\n", BCD.TD.Fields.Reserved);
printf(" * Name: %s (mangled: %s)\n", BCD.TD.UnmangledName, BCD.TD.Name);
}
for(uint32_t j=0; j<RC.COLL.Count; j++) {
RTTICompleteObjectLocator& COL = RC.COLL.Buffer[j];
printf(" * Complete object locator #%u: (Address %08X)\n", j, COL.Fields.Address + ImageBase);
printf(" * Reserved: %u\n", COL.Fields.Reserved);
printf(" * Offset: %d\n", COL.Fields.Offset);
printf(" * CD Offset: %d\n", COL.Fields.CDOffset);
printf(" * Type descriptor address: %08X\n", COL.Fields.TypeDescriptorAddress);
printf(" * Class descriptor address: %08X\n", COL.Fields.ClassDescriptorAddress);
printf(" * v-table address: %08X\n", COL.VTableAddress);
}
}
printf("\n****\n** [ 2 of 2 ] Class Hierarchy for %s\n****\n", BaseName);
qsort(RCL.Buffer, RCL.Count, sizeof(RTTIClass), RTTIClass::Compare);
for(i=0; i<RCL.Count; i++) {
RTTIClass& RC = RCL.Buffer[i];
printf("\nclass %s", RC.TD.UnmangledName);
if(RC.CHD.BCDL.Count > 1) {
//The first BCD always refers to the class itself, e.g. class A "depends on class A".
printf(" : %s", RC.CHD.BCDL.Buffer[1].TD.UnmangledName);
for(uint32_t j=2; j<RC.CHD.BCDL.Count; j++)
printf(", %s", RC.CHD.BCDL.Buffer[j].TD.UnmangledName);
}
printf(";");
}
printf("\n\nCompleted RTTI report.\nDependencies provided for %u of %u classes.\n", (unsigned)RCL.Count, TotalClassCount);
return 0;
}
#error "If you don't use UART, please remove this file from your make file"
#endif
#if TNUM_SIOP_UART > 3
#error "Only TNUM_SIOP_UART < 4 is supported"
#endif /* TNUM_SIOP_UART >= 2 */
/* ディバイザ計算マクロ */
#define DLM(divisor) (divisor/256)
#define DLL(divisor) (divisor%256)
SIOPINIB siopinib_table[TNUM_SIOP_UART] = {
/*-----------------------------------------------------------------
* PDICが管理する最初のUARTの初期化パラメータ
*/
{UART0_ADDRESS, DLM(UART0_DIVISOR), DLL(UART0_DIVISOR),
#ifdef UART0_BLACKFIN_UCEN
1 /* マクロUART0_BLACKFIN_UCENが定義されていたら、GCTLのUCENを1にしてクロックを動かす */
#else
0
#endif
}
/*-----------------------------------------------------------------
* PDICが管理する2番目のUARTの初期化パラメータ
*/
#if TNUM_SIOP_UART > 1
,{UART1_ADDRESS, DLM(UART1_DIVISOR), DLL(UART1_DIVISOR),
#ifdef UART1_BLACKFIN_UCEN
1 /* マクロUART1_BLACKFIN_UCENが定義されていたら、GCTLのUCENを1にしてクロックを動かす */