static void InitApp(void)
{
int file;
u8 buf[32];
//sdk_open_lcd();
InitParam();
sdk_clear_lcd();
//sdk_fill_lcd(DEV_LCD_FONT_ROW / 2, 0, (char*)"系统初始化...", SHOW_MID);
//sdk_open_com(DEVICE_BT);
//my_printf("获取蓝牙\r\n");
//sdk_get_bt_name(g_blue_name);
//my_printf("蓝牙名字 %s\r\n", g_blue_name);
//sdk_close_com(DEVICE_BT);
//sdk_open_com(gSysParam.m_CommMode);
//file = sdk_open_file(FILENAME_MASTKEY, FILE_OPEN_CREATE | FILE_OPEN_WRITE);
//sdk_read_file((char*)buf,16,file);
/*
memcpy(buf, "\xDC\xB6\x62\x98\x76\xBC\xAE\x58\xDF\x01\x5E\x73\xC2\x64\x19\x64", 16);
if(sdk_write_file((char*)buf,16,file))
{
DEBUG
printf("file write error\r\n");
}
*/
//sdk_close_file(file);
//sdk_clear_lcd();
}
int main(){
/*allocation*/
/*RecvBuf*/
RecvBuf.len = 0;
RecvBuf.size = SHORT_BUFF_SIZE;
if((RecvBuf.buf = malloc(sizeof(char) * RecvBuf.size)) == NULL){perror("malloc"); exit(0);}
RecvBuf.buf[0] = '\0';
/*CommBuf*/
CommBuf.len = 0;
//CommBuf.size = SHORT_BUFF_SIZE;
CommBuf.size = LONG_BUFF_SIZE;
//CommBuf.size = HUGE_BUFF_SIZE;
if((CommBuf.buf = malloc(sizeof(char) * CommBuf.size)) == NULL){perror("malloc"); exit(0);}
CommBuf.buf[0] = '\0';
/*version*/
PrintVersion();
/*init parametas*/
InitParam();
/*init socket*/
//InitSocket();
if(InitSocket() == -1){
return(-1);
}
/*init signal*/
InitSignal();
/*main loop*/
MainLoop();
/*close socket*/
CloseSocket();
return(0);
}
/**********************************************************
Checks if the GSM module is responding
to the AT command
- if YES nothing is made
- if NO switch on sequence is repeated until there is a response
from GSM module
**********************************************************/
void GSM::TurnOn(void)
{
SetCommLineStatus(CLS_ATCMD);
while (AT_RESP_ERR_NO_RESP == SendATCmdWaitResp("AT", 500, 20, "OK", 5)) {
// there is no response => turn on the module
#ifdef DEBUG_PRINT
// parameter 0 - because module is off so it is not necessary
// to send finish AT<CR> here
DebugPrint("DEBUG: GSM module is off\r\n", 0);
#endif
// generate switch on pulse
digitalWrite(GSM_ON, HIGH);
delay(1200);
digitalWrite(GSM_ON, LOW);
delay(1200);
delay(1500); // wait before next try
}
SetCommLineStatus(CLS_FREE);
// send collection of first initialization parameters for the GSM module
InitParam(PARAM_SET_0);
}
/**********************************************************
Method checks if the GSM module is registered in the GSM net
- this method communicates directly with the GSM module
in contrast to the method IsRegistered() which reads the
flag from the module_status (this flag is set inside this method)
- must be called regularly - from 1sec. to cca. 10 sec.
return values:
REG_NOT_REGISTERED - not registered
REG_REGISTERED - GSM module is registered
REG_NO_RESPONSE - GSM doesn't response
REG_COMM_LINE_BUSY - comm line between GSM module and Arduino is not free
for communication
**********************************************************/
GSM::RegistrationStatus GSM::CheckRegistration(void)
{
RXstateRes status;
RegistrationStatus ret_val = REG_NOT_REGISTERED;
if (CLS_FREE != getCOMStatus())
return REG_COMM_LINE_BUSY;
setCOMStatus(CLS_ATCMD);
print(F("AT+CREG?"));
print("\r");
// 5 sec. for initial comm tmout
// 50 msec. for inter character timeout
status = WaitResp(5000, 50);
if (status == RX_FINISHED)
{
// something was received but what was received?
// ---------------------------------------------
if (IsStringReceived("+CREG: 0,1") || IsStringReceived("+CREG: 0,5"))
{
// it means module is registered
// ----------------------------
setRegistrationStatus(REG_REGISTERED);
// in case GSM module is registered first time after reset
// sets flag STATUS_INITIALIZED
// it is used for sending some init commands which
// must be sent only after registration
// --------------------------------------------
if (!isInitialized())
{
setGSMStatus(GSM_INITIALIZED);
setCOMStatus(CLS_FREE);
InitParam(PARAM_SET_1);
DEBUG(F("Status: Initialized"));
}
ret_val = REG_REGISTERED;
INFO(F("Status: Registered"));
}
else
{
// NOT registered
// --------------
setRegistrationStatus(REG_NOT_REGISTERED);
ret_val = REG_NOT_REGISTERED;
DATA(F("Status: Not registered"));
}
}
else
{
// nothing was received
// --------------------
ret_val = REG_NO_RESPONSE;
WARNING(F("Status: Not response"));
}
setCOMStatus(CLS_FREE);
return (ret_val);
}
void main(void)
{
serialBegin(9600);
TurnOn(9600); //module power on
InitParam(PARAM_SET_1); //configure the module
Echo(1); //enable AT echo
ver=LibVer();
printf("Response Ver %d\n",ver);
}
/**********************************************************
Method checks if the GSM module is registered in the GSM net
- this method communicates directly with the GSM module
in contrast to the method IsRegistered() which reads the
flag from the module_status (this flag is set inside this method)
- must be called regularly - from 1sec. to cca. 10 sec.
return values:
REG_NOT_REGISTERED - not registered
REG_REGISTERED - GSM module is registered
REG_NO_RESPONSE - GSM doesn't response
REG_COMM_LINE_BUSY - comm line between GSM module and Arduino is not free
for communication
**********************************************************/
byte GSM::CheckRegistration(void)
{
byte status;
byte ret_val = REG_NOT_REGISTERED;
if (CLS_FREE != GetCommLineStatus()) return (REG_COMM_LINE_BUSY);
SetCommLineStatus(CLS_ATCMD);
_cell.println(F("AT+CREG?"));
// 5 sec. for initial comm tmout
// 50 msec. for inter character timeout
status = WaitResp(5000, 50);
if (status == RX_FINISHED) {
// something was received but what was received?
// ---------------------------------------------
if(IsStringReceived("+CREG: 0,1")
|| IsStringReceived("+CREG: 0,5")) {
// it means module is registered
// ----------------------------
module_status |= STATUS_REGISTERED;
// in case GSM module is registered first time after reset
// sets flag STATUS_INITIALIZED
// it is used for sending some init commands which
// must be sent only after registration
// --------------------------------------------
if (!IsInitialized()) {
module_status |= STATUS_INITIALIZED;
SetCommLineStatus(CLS_FREE);
InitParam(PARAM_SET_1);
}
ret_val = REG_REGISTERED;
}
else {
// NOT registered
// --------------
module_status &= ~STATUS_REGISTERED;
ret_val = REG_NOT_REGISTERED;
}
}
else {
// nothing was received
// --------------------
ret_val = REG_NO_RESPONSE;
}
SetCommLineStatus(CLS_FREE);
return (ret_val);
}
gmShellPlink::gmShellPlink(pCSTR login, pCSTR host, pCSTR plink_args) :
auth_defined(false)
{
// Global parameters which could be read from XML
InitParam("login", login);
InitParam("host", host);
InitParam("plink_args", plink_args);
InitParam("plink_path", UNINITIALIZED_PARAM);
InitParam("pscp_path", UNINITIALIZED_PARAM);
InitParam("plink_att_num", "1");
InitParam("plink_retry_delay", "3000");
}
QSysParamPage::QSysParamPage(QWidget* parent_)
:QBasePage( parent_)
{
m_nShowColumn = 0;
m_pFileList = new QListBox(this);
m_pFileList->SetWindPos(0, 0,853, 618);
QStringList _listHead;
_listHead << "编号"<<"参数名"<<"参数值"<<"单位";
m_pFileList->SetColumnHeadName( _listHead);
m_pFileList->SetColumnWidth(0, 135);
m_pFileList->SetColumnWidth(1, 340);
m_pFileList->SetColumnWidth(2, 180);
m_pFileList->SetColumnWidth(3, 180);
m_pFileList->SetColumnHeight(18);
InitParam();
UpdateView(0);
}
void KJxUpdaterDlg::CheckUpdate()
{
int nRetCode = false;
int nResult = false;
::GetCurrentDirectory(MAX_PATH, m_szAppPath);
_sntprintf(m_szUpdatePath, MAX_PATH, "%s%s%s", m_szAppPath,
CONFIG_PATH, "\\");
nRetCode = CreateLogPath(m_szUpdatePath);
KG_PROCESS_ERROR(nRetCode);
nRetCode = ClearFile(m_szUpdatePath);
KG_PROCESS_ERROR(nRetCode);
InitParam();
// nRetCode = LoadConfig();
// KG_PROCESS_ERROR(nRetCode);
// nRetCode = CheckVersion();
// KG_PROCESS_ERROR(nRetCode);
if (m_bNeedUpdate)
{
nRetCode = Update();
KG_PROCESS_ERROR(nRetCode);
m_CtrlStatus.SetWindowText(MSG_SUCCESS);
}
else
{
//m_CtrlStatus.SetWindowText(MSG_ISNEW);
//OnBnClickedQuit();
EndDialog(TRUE);
}
nResult = true;
Exit0:
if (!nResult)
m_CtrlStatus.SetWindowText(MSG_ERROR);
return;
}
std::deque<AStar::Vec2> AStar::Search(const Param ¶m)
{
std::deque<Vec2> paths;
if (!IsVlidParam(param))
{
assert(false);
}
else
{
InitParam(param);
std::vector<Vec2> nearby_nodes;
nearby_nodes.reserve(param.allow_corner ? 8 : 4);
// 起点放入开启列表
Node *start_node = new Node(param.start);
open_list_.push_back(start_node);
// 设置起点所对应节点的状态
Node *&node_ptr = maps_[start_node->pos.y * height_ + start_node->pos.x];
node_ptr = start_node;
node_ptr->state = IN_OPENLIST;
while (!open_list_.empty())
{
// 取出F值最小的节点
Node *current_node = *open_list_.begin();
std::pop_heap(open_list_.begin(), open_list_.end(), [](const Node *a, const Node *b)->bool
{
return a->f() > b->f();
});
open_list_.pop_back();
maps_[current_node->pos.y * height_ + current_node->pos.x]->state = IN_CLOSELIST;
// 搜索附近可通行的位置
FindCanreachPos(current_node->pos, param.allow_corner, nearby_nodes);
size_t index = 0;
const size_t size = nearby_nodes.size();
while (index < size)
{
// 如果存在于开启列表
Node *new_node = nullptr;
if (HasNoodeInOpenList(nearby_nodes[index], new_node))
{
HandleFoundNode(current_node, new_node);
}
else
{
// 如果不存在于开启列表
new_node = new Node(nearby_nodes[index]);
HndleNotFoundNode(current_node, new_node, param.end);
// 找到终点
if (nearby_nodes[index] == param.end)
{
while (new_node->parent)
{
paths.push_front(new_node->pos);
new_node = new_node->parent;
}
goto __end__;
}
}
++index;
}
}
}
__end__:
Clear();
return paths;
}
MyCrypto::MyCrypto(QObject *parent) :
QObject(parent)
{
InitParam();
}
bool TRI_ValidateArgsFunctionAql (TRI_aql_context_t* const context,
const TRI_aql_function_t* const function,
const TRI_aql_node_t* const parameters) {
param_t allowed;
const char* pattern;
size_t i, n;
bool eof = false;
bool repeat = false;
assert(function);
assert(parameters);
assert(parameters->_type == TRI_AQL_NODE_LIST);
n = parameters->_members._length;
// validate number of arguments
if (n < function->_minArgs || n > function->_maxArgs) {
// invalid number of arguments
TRI_SetErrorContextAql(context, TRI_ERROR_QUERY_FUNCTION_ARGUMENT_NUMBER_MISMATCH, function->_externalName);
return false;
}
pattern = function->_argPattern;
// validate argument types
for (i = 0; i < n; ++i) {
TRI_aql_node_t* parameter = (TRI_aql_node_t*) TRI_AQL_NODE_MEMBER(parameters, i);
bool parse = true;
bool foundArg = false;
if (repeat) {
// last argument is repeated
ARG_CHECK
}
else {
// last argument is not repeated
allowed = InitParam();
foundArg = false;
while (parse && !eof) {
char c = *pattern++;
switch (c) {
case '\0':
parse = false;
eof = true;
if (foundArg) {
ARG_CHECK
}
break;
case '|': // optional marker
if (foundArg) {
parse = false;
ARG_CHECK
if (*pattern == '+') {
repeat = true;
eof = true;
}
}
break;
case ',': // next argument
assert(foundArg);
parse = false;
ARG_CHECK
break;
case '+': // repeat last argument
repeat = true;
parse = false;
eof = true;
ARG_CHECK
break;
case '.': // any type except collections
allowed._list = true;
allowed._array = true;
// break intentionally missing!!
case 'p': // primitive types
allowed._null = true;
allowed._bool = true;
allowed._number = true;
allowed._string = true;
foundArg = true;
break;
case 'z': // null
allowed._null = true;
foundArg = true;
break;
case 'b': // bool
allowed._bool = true;
foundArg = true;
break;
case 'n': // number
allowed._number = true;
foundArg = true;
break;
case 's': // string
allowed._string = true;
foundArg = true;
break;
case 'l': // list
allowed._list = true;
foundArg = true;
break;
case 'a': // array
allowed._array = true;
foundArg = true;
break;
case 'c': // collection name => list
allowed._collection = true;
foundArg = true;
break;
case 'h': // collection name => string
allowed._collection = true;
foundArg = true;
break;
}
}
}
}
static bool CheckArgumentType (TRI_aql_node_t* parameter,
const param_t* const allowed) {
param_t found = InitParam();
if (parameter->_type == TRI_AQL_NODE_PARAMETER) {
// node is a bind parameter
char* name = TRI_AQL_NODE_STRING(parameter);
if (*name == '@') {
// collection bind parameter. this is an error
found._collection = true;
found._list = true; // a collection is a list of documents
}
else {
// regular bind parameter
found._null = true;
found._bool = true;
found._number = true;
found._string = true;
found._list = true;
found._array = true;
}
}
else if (parameter->_type == TRI_AQL_NODE_VALUE) {
switch (parameter->_value._type) {
case TRI_AQL_TYPE_FAIL:
case TRI_AQL_TYPE_NULL:
found._null = true;
break;
case TRI_AQL_TYPE_BOOL:
found._bool = true;
break;
case TRI_AQL_TYPE_INT:
case TRI_AQL_TYPE_DOUBLE:
found._number = true;
break;
case TRI_AQL_TYPE_STRING:
found._string = true;
break;
}
}
else if (parameter->_type == TRI_AQL_NODE_LIST) {
// actual parameter is a list
found._list = true;
}
else if (parameter->_type == TRI_AQL_NODE_ARRAY) {
// actual parameter is an array
found._array = true;
}
else if (parameter->_type == TRI_AQL_NODE_COLLECTION) {
// actual parameter is a collection
found._collection = true;
found._list = true; // a collection is a list of documents
}
else {
// we cannot yet determine the type of the parameter
// this is the case if the argument is an expression, a function call etc.
if (!allowed->_collection) {
// if we do require anything else but a collection, we don't know the
// type and must exit here
return true;
}
// if we require a collection, it must be passed in a form that we know
// the collection name at parse time. otherwise, an error will be raised
}
if (allowed->_null && found._null) {
// argument is a null value, and this is allowed
return true;
}
if (allowed->_bool && found._bool) {
// argument is a bool value, and this is allowed
return true;
}
if (allowed->_number && found._number) {
// argument is a numeric value, and this is allowed
return true;
}
if (allowed->_string && found._string) {
// argument is a string value, and this is allowed
return true;
}
if (allowed->_list && found._list) {
// argument is a list, and this is allowed
return true;
}
if (allowed->_array && found._array) {
// argument is an array, and this is allowed
return true;
}
if (allowed->_collection && found._collection) {
// argument is a collection, and this is allowed
return true;
}
return false;
}
/*---------------------------------------------------------------------*/
static int OldLitGcgFichCoeff( FILE* FICH, char* NomFich, t_pParamAlign Param )
{
register int i,j;
register int c;
float Flottant;
int DebutDesCoeffs;
int FinDesCommentaires;
long PosDebLigne;
t_score s, ss;
/*------------------------ passer les commentaires */
for( c=' ', FinDesCommentaires=faux; (c!=EOF) && !FinDesCommentaires;
c=fgetc(FICH) )
{
if( c=='.' )
{
if( (c=fgetc(FICH))=='.' )
FinDesCommentaires= vrai;
else
ungetc( c, FICH );
}
/* memoriser les debuts de ligne */
if( c=='\n' )
PosDebLigne= ftell( FICH );
}
fseek( FICH, PosDebLigne, 0 );
/*------------------- lire la ligne des symboles */
for(c=' ',i=Param->PremLettre,DebutDesCoeffs=faux; (c!= EOF) && !DebutDesCoeffs;
c= fgetc(FICH) )
{
if( c=='.' )
{
if( (c= fgetc(FICH))=='.')
DebutDesCoeffs= vrai;
else
ungetc( c, FICH );
}
else if( !isspace(c) )
{
Param->Symb[i]= c;
Param->NumSymb[c]=i;
i++;
}
}
Param->DerLettre= i-1;
if(feof(FICH)||(i>=DERLETTREMAX))
{
TraiteErr(12, NomFich );
InitParam (Param);
return faux;
}
/*-------------------- lire les coefficients */
for( i=Param->PremLettre,ss=0; i<=Param->DerLettre; i++ )
{
for( j=i; j<=Param->DerLettre; j++ )
if( (fscanf(FICH,"%f",&Flottant))==EOF )
{
TraiteErr(12, NomFich );
InitParam (Param);
return faux;
}
else
{
Param->Coeff[i][j]= s = float_to_score(Flottant*10);
if (s>ss) ss=s;
}
fscanf(FICH,"%*s \n");
}
Param->CoeffMax=ss;
/*---------- rendre symetrique la matrice de coefficients */
for( i=Param->PremLettre; i<Param->DerLettre; i++ )
for( j=i+1; j<=Param->DerLettre; j++ )
Param->Coeff[j][i]= Param->Coeff[i][j];
return vrai;
}
BOOL CConfigApp::InitInstance()
{
// InitCommonControlsEx() is required on Windows XP if an application
// manifest specifies use of ComCtl32.dll version 6 or later to enable
// visual styles. Otherwise, any window creation will fail.
INITCOMMONCONTROLSEX InitCtrls;
InitCtrls.dwSize = sizeof(InitCtrls);
// Set this to include all the common control classes you want to use
// in your application.
InitCtrls.dwICC = ICC_WIN95_CLASSES;
InitCommonControlsEx(&InitCtrls);
CWinApp::InitInstance();
if (!AfxSocketInit())
{
AfxMessageBox(IDP_SOCKETS_INIT_FAILED);
return FALSE;
}
// Initialize OLE libraries
if (!AfxOleInit())
{
AfxMessageBox(IDP_OLE_INIT_FAILED);
return FALSE;
}
AfxEnableControlContainer();
globalData.SetDPIAware ();
// Standard initialization
// If you are not using these features and wish to reduce the size
// of your final executable, you should remove from the following
// the specific initialization routines you do not need
// Change the registry key under which our settings are stored
// TODO: You should modify this string to be something appropriate
// such as the name of your company or organization
SetRegistryKey(_T("BCGP AppWizard-Generated Applications"));
LoadStdProfileSettings(4); // Load standard INI file options (including MRU)
SetRegistryBase (_T("Settings"));
InitContextMenuManager();
InitKeyboardManager();
InitShellManager();
InitParam();
// Register the application's document templates. Document templates
// serve as the connection between documents, frame windows and views
CSingleDocTemplate* pDocTemplate;
pDocTemplate = new CSingleDocTemplate(
IDR_MAINFRAME,
RUNTIME_CLASS(CConfigDoc),
RUNTIME_CLASS(CMainFrame), // main SDI frame window
RUNTIME_CLASS(CConfigView));
if (!pDocTemplate)
return FALSE;
AddDocTemplate(pDocTemplate);
// Parse command line for standard shell commands, DDE, file open
CCommandLineInfo cmdInfo;
ParseCommandLine(cmdInfo);
// Dispatch commands specified on the command line. Will return FALSE if
// app was launched with /RegServer, /Register, /Unregserver or /Unregister.
if (!ProcessShellCommand(cmdInfo))
return FALSE;
LoadCustomState ();
// The one and only window has been initialized, so show and update it
m_pMainWnd->ShowWindow(SW_SHOW);
m_pMainWnd->UpdateWindow();
// call DragAcceptFiles only if there's a suffix
// In an SDI app, this should occur after ProcessShellCommand
return TRUE;
}
static int LitMulFichCoeff( FILE* FICH, char* NomFich, t_pParamAlign Param )
{
register int i,j;
register int c;
int cc;
int DebutDesCoeff,OK;
float lu;
t_score s,ss;
/*------------------------ passer les commentaires */
DebutDesCoeff= faux;
while( !DebutDesCoeff && !feof(FICH) )
{
/* passer les blancs */
while( (c= fgetc(FICH))!=EOF && isspace(c) );
/* passer les commentaires */
if( c=='>')
while( (c=fgetc(FICH))!='\n' && c!=EOF ); /* passer a la ligne */
else
DebutDesCoeff= vrai; /* on est au debut de la sequence */
}
/*------------------- lire la ligne des symboles */
if (c==' ') while ((c= fgetc(FICH))==' ');
for(i=Param->PremLettre-1; (i<DERLETTREMAX) && c!= EOF && c!='\n';)
{
if( Param->NumSymb[c]!= FreeSymb )
{
TraiteErr (12,NomFich);
InitParam (Param);
return faux;
}
i++;
Param->Symb[i]= c;
Param->NumSymb[c]=i;
while ((c= fgetc(FICH))==' ');
}
Param->DerLettre= i;
/*-------------------- lire les coefficients */
for( i=Param->PremLettre,OK=1,ss=0;(OK==1) &&(i<=Param->DerLettre); i++ )
{
for( j=i;(OK==1) && (j<=Param->DerLettre); j++ )
{
while( ((OK=fscanf(FICH,"%g",&lu))!=1 ) && (OK!=EOF)) c=fgetc(FICH);
Param->Coeff[i][j]= s=(t_score)lu;
if (s > ss) ss=s;
}
while( (c=fgetc(FICH))!='\n' && c!=EOF );
}
Param->CoeffMax = ss;
if (i<=Param->DerLettre)
{
TraiteErr (12,NomFich);
InitParam (Param);
return faux;
}
/* rendre symetrique la matrice de coefficients */
for( i=Param->PremLettre; i<Param->DerLettre; i++ )
for( j=i+1; j<=Param->DerLettre; j++ )
Param->Coeff[j][i]= Param->Coeff[i][j];
while( (c=fgetc(FICH))!='\n' && c!=EOF ); /* passer a la ligne */
if (feof(FICH)) return vrai;
/*------------------- lire la valeur de gap */
if( fscanf(FICH,"%f",&lu)== 1 )
{
Param->Gap= lu;
if( fscanf(FICH,"%f",&lu)== 1 )
Param->Gap2= lu;
}
while( (c=fgetc(FICH))!='\n' && c!=EOF ); /* passer a la ligne */
/*------------------ initialisation des clusters de symboles */
cc = Param->DerLettre;
while( !feof(FICH) )
{
/* lire le symbole representant les symboles homologues dans le consensus */
/* passer les blancs */
while( ((c=fgetc(FICH))!=EOF) && isspace(c) );
if (c==EOF) break;
i=Param->NumSymb[c];
if ((i==FreeSymb)&&(cc<DERLETTREMAX))
{
cc++;
Param->NumSymb[c]=cc;
i=cc;
Param->Symb[i]=c;
}
if ((i>0)&&(i<=DERLETTREMAX))
while ((c!=EOF) && (c!='\n'))
{
while ((c=fgetc(FICH))!=EOF && (c==' ') && !(c=='\n'));
if ((c>0) && ((j = Param->NumSymb[c])>0)&&(j<=DERLETTREMAX))
Param->Hom[j] = i;
}
else
while( (c=fgetc(FICH))!='\n' && c!=EOF ); /* passer a la ligne */
}
return vrai;
}
static int LitGcgFichCoeff( FILE* FICH, char* NomFich, t_pParamAlign Param )
{
char Line[256],*s;
int i, j, OK, lu;
t_score ss, sc;
s=fgets(Line,256,FICH);
if (s && strncmp(Line,"!!",2))
{
rewind(FICH);
return OldLitGcgFichCoeff(FICH,NomFich,Param);
}
/*------------------------ passer les commentaires */
while (s && !strstr(Line,"..\n")) s=fgets(Line,256,FICH);
while (((s=fgets(Line,256,FICH))!=NULL) && (Line[0]=='\n'));
if (s && (Line[0]=='{'))
/*------------------- lire la valeur de gap */
{
while (fgets(Line,256,FICH) && (Line[0]!='}')) if (Line[0]!='!')
{
if (strstr(Line,"GAP_CREATE")) sscanf(Line,"%*s %d",&Param->Gap);
else if (strstr(Line,"GAP_EXTEND")) sscanf(Line,"%*s %d",&Param->Gap2);
}
while (((s=fgets(Line,256,FICH))!=NULL) && (Line[0]=='\n'));
}
if (!s)
{
TraiteErr (12,NomFich);
InitParam (Param);
return faux;
}
/*------------------- lire la ligne des symboles */
for(s=Line,i=Param->PremLettre; (i<DERLETTREMAX) && *s && *s!='\n';s++,i++)
{
while (isspace(*s)) s++;
if (!*s) break;
if( Param->NumSymb[*s]!= FreeSymb )
{
TraiteErr (12,NomFich);
InitParam (Param);
return faux;
}
Param->Symb[i]= *s;
Param->NumSymb[*s]=i;
}
Param->DerLettre= i-1;
/*-------------------- lire les coefficients */
for( i=Param->PremLettre,OK=1,ss=0;OK &&(i<=Param->DerLettre);)
{
if (!fgets(Line,256,FICH)) break;
s = strtok(Line," ");
if (s && (Param->Symb[i]==s[0]))
{
for( j=Param->PremLettre;OK && (j<=i); j++ )
{
s = strtok(NULL," ");
OK = s && (sscanf(s,"%d",&lu)==1);
Param->Coeff[i][j]= sc=(t_score)lu;
if (sc > ss) ss=sc;
}
i++;
}
}
Param->CoeffMax = ss;
if (i<=Param->DerLettre)
{
TraiteErr (12,NomFich);
InitParam (Param);
return faux;
}
/* rendre symetrique la matrice de coefficients */
for( i=Param->PremLettre; i<Param->DerLettre; i++ )
{
/* fprintf (stderr,"\n%c ",Param->Symb[i]);*/
for( j=Param->PremLettre; j<i; j++ )
{
Param->Coeff[j][i]= Param->Coeff[i][j];
/* fprintf(stderr,"%4d",Param->Coeff[i][j]);*/
}
}
return vrai;
}
int GSM::begin(long baud_rate){
#ifdef UNO
if (baud_rate==115200){
Serial.println("Don't use baudrate 115200 with Software Serial.\nAutomatically changed at 9600.");
baud_rate=9600;
}
#endif
int response=-1;
int cont=0;
boolean norep=true;
boolean turnedON=false;
SetCommLineStatus(CLS_ATCMD);
_cell.begin(baud_rate);
p_comm_buf = &comm_buf[0];
setStatus(IDLE);
// if no-reply we turn to turn on the module
for (cont=0; cont<3; cont++){
if (AT_RESP_ERR_NO_RESP == SendATCmdWaitResp("AT", 500, 100, "OK", 5)&&!turnedON) { //check power
// there is no response => turn on the module
#ifdef DEBUG_ON
Serial.println("DB:NO RESP");
#endif
// generate turn on pulse
digitalWrite(GSM_ON, HIGH);
delay(1200);
digitalWrite(GSM_ON, LOW);
delay(10000);
WaitResp(1000, 1000);
}
else{
#ifdef DEBUG_ON
Serial.println("DB:ELSE");
#endif
WaitResp(1000, 1000);
}
}
if (AT_RESP_OK == SendATCmdWaitResp("AT", 500, 100, "OK", 5)){
#ifdef DEBUG_ON
Serial.println(F("DB:CORRECT BR"));
#endif
turnedON=true;
norep=false;
}
if (AT_RESP_ERR_DIF_RESP == SendATCmdWaitResp("AT", 500, 100, "OK", 5)&&!turnedON){ //check OK
#ifdef DEBUG_ON
Serial.println(F("DB:AUTO BAUD RATE"));
#endif
for (int i=0;i<8;i++){
switch (i) {
case 0:
_cell.begin(1200);
break;
case 1:
_cell.begin(2400);
break;
case 2:
_cell.begin(4800);
break;
case 3:
_cell.begin(9600);
break;
case 4:
_cell.begin(19200);
break;
case 5:
_cell.begin(38400);
break;
case 6:
_cell.begin(57600);
break;
case 7:
_cell.begin(115200);
break;
// if nothing else matches, do the default
// default is optional
}
delay(100);
#ifdef DEBUG_PRINT
// parameter 0 - because module is off so it is not necessary
// to send finish AT<CR> here
DebugPrint("DEBUG: Stringa ", 0);
DebugPrint(buff, 0);
#endif
if (AT_RESP_OK == SendATCmdWaitResp("AT", 500, 100, "OK", 5)){
#ifdef DEBUG_ON
Serial.println(F("DB:FOUND PREV BR"));
#endif
_cell.print(F("AT+IPR="));
_cell.print(baud_rate);
_cell.print("\r"); // send <CR>
delay(500);
_cell.begin(baud_rate);
delay(100);
if (AT_RESP_OK == SendATCmdWaitResp("AT", 500, 100, "OK", 5)){
#ifdef DEBUG_ON
Serial.println("DB:OK BR");
#endif
}
turnedON=true;
break;
}
#ifdef DEBUG_ON
Serial.println("DB:NO BR");
#endif
}
// communication line is not used yet = free
SetCommLineStatus(CLS_FREE);
// pointer is initialized to the first item of comm. buffer
p_comm_buf = &comm_buf[0];
}
if(norep==true&&!turnedON){
Serial.println(F("Trying to force the baud-rate to 9600\n"));
for (int i=0;i<8;i++){
switch (i) {
case 0:
_cell.begin(1200);
delay(1000);
Serial.println(F("1200"));
_cell.print(F("AT+IPR=9600\r"));
delay(1000);
_cell.begin(9600);
delay(1000);
SendATCmdWaitResp("AT", 500, 100, "OK", 5);
delay(1000);
WaitResp(1000,1000);
break;
case 1:
_cell.begin(2400);
delay(1000);
Serial.println(F("2400"));
_cell.print(F("AT+IPR=9600\r"));
delay(1000);
_cell.begin(9600);
delay(1000);
SendATCmdWaitResp("AT", 500, 100, "OK", 5);
delay(1000);
WaitResp(1000,1000);
break;
case 2:
_cell.begin(4800);
delay(1000);
Serial.println(F("4800"));
_cell.print(F("AT+IPR=9600\r"));
delay(1000);
_cell.begin(9600);
delay(1000);
SendATCmdWaitResp("AT", 500, 100, "OK", 5);
delay(1000);
WaitResp(1000,1000);
break;
case 3:
_cell.begin(9600);
delay(1000);
Serial.println(F("9600"));
_cell.print(F("AT+IPR=9600\r"));
delay(1000);
_cell.begin(9600);
delay(1000);
SendATCmdWaitResp("AT", 500, 100, "OK", 5);
delay(1000);
WaitResp(1000,1000);
break;
case 4:
_cell.begin(19200);
delay(1000);
Serial.println(F("19200"));
_cell.print(F("AT+IPR=9600\r"));
delay(1000);
_cell.begin(9600);
delay(1000);
SendATCmdWaitResp("AT", 500, 100, "OK", 5);
delay(1000);
WaitResp(1000,1000);
break;
case 5:
_cell.begin(38400);
delay(1000);
Serial.println(F("38400"));
_cell.print(F("AT+IPR=9600\r"));
delay(1000);
_cell.begin(9600);
delay(1000);
SendATCmdWaitResp("AT", 500, 100, "OK", 5);
delay(1000);
WaitResp(1000,1000);
break;
case 6:
_cell.begin(57600);
delay(1000);
Serial.println(F("57600"));
_cell.print(F("AT+IPR=9600\r"));
delay(1000);
_cell.begin(9600);
delay(1000);
SendATCmdWaitResp("AT", 500, 100, "OK", 5);
delay(1000);
WaitResp(1000,1000);
break;
case 7:
_cell.begin(115200);
delay(1000);
Serial.println(F("115200"));
_cell.print(F("AT+IPR=9600\r"));
delay(1000);
_cell.begin(9600);
delay(1000);
SendATCmdWaitResp("AT", 500, 100, "OK", 5);
delay(1000);
WaitResp(1000,1000);
break;
}
}
Serial.println(F("ERROR: SIM900 doesn't answer. Check power and serial pins in GSM.cpp"));
digitalWrite(GSM_ON, HIGH);
delay(1200);
digitalWrite(GSM_ON, LOW);
delay(10000);
return 0;
}
SetCommLineStatus(CLS_FREE);
if(turnedON){
WaitResp(50, 50);
InitParam(PARAM_SET_0);
InitParam(PARAM_SET_1);//configure the module
Echo(0); //enable AT echo
setStatus(READY);
return(1);
}
else{
//just to try to fix some problems with 115200 baudrate
_cell.begin(115200);
delay(1000);
_cell.print(F("AT+IPR="));
_cell.print(baud_rate);
_cell.print("\r"); // send <CR>
return(0);
}
}
BOOL CInstallApp::InitInstance()
{
HWND oldHWnd = NULL;
EnumWindows(EnumWndProc,(LPARAM)&oldHWnd); //枚举所有运行的窗口
if(oldHWnd != NULL)
{
::ShowWindow(oldHWnd,SW_SHOWNORMAL); //激活找到的前一个程序
::SetForegroundWindow(oldHWnd); //把它设为前景窗口
return false; //退出本次运行
}
// 如果一个运行在 Windows XP 上的应用程序清单指定要
// 使用 ComCtl32.dll 版本 6 或更高版本来启用可视化方式，
//则需要 InitCommonControlsEx()。否则，将无法创建窗口。
INITCOMMONCONTROLSEX InitCtrls;
InitCtrls.dwSize = sizeof(InitCtrls);
// 将它设置为包括所有要在应用程序中使用的
// 公共控件类。
InitCtrls.dwICC = ICC_WIN95_CLASSES;
InitCommonControlsEx(&InitCtrls);
CWinApp::InitInstance();
if (!AfxSocketInit())
{
AfxMessageBox(IDP_SOCKETS_INIT_FAILED);
return FALSE;
}
// 初始化 OLE 库
if (!AfxOleInit())
{
AfxMessageBox(IDP_OLE_INIT_FAILED);
return FALSE;
}
AfxEnableControlContainer();
// 标准初始化
// 如果未使用这些功能并希望减小
// 最终可执行文件的大小，则应移除下列
// 不需要的特定初始化例程
// 更改用于存储设置的注册表项
// TODO: 应适当修改该字符串，
// 例如修改为公司或组织名
SetRegistryKey(_T("BCGSoft\\BCGControlBarPro\\Samples"));
// LoadStdProfileSettings(); // 加载标准 INI 文件选项(包括 MRU)
SetRegistryBase (_T("Settings"));
InitContextMenuManager();
InitKeyboardManager();
InitParam();
// 注册应用程序的文档模板。文档模板
// 将用作文档、框架窗口和视图之间的连接
CSingleDocTemplate* pDocTemplate;
pDocTemplate = new CSingleDocTemplate(
IDR_MAINFRAME,
RUNTIME_CLASS(CInstallDoc),
RUNTIME_CLASS(CMainFrame), // 主 SDI 框架窗口
RUNTIME_CLASS(CInstallView));
if (!pDocTemplate)
return FALSE;
AddDocTemplate(pDocTemplate);
// 分析标准外壳命令、DDE、打开文件操作的命令行
CCommandLineInfo cmdInfo;
ParseCommandLine(cmdInfo);
// 调度在命令行中指定的命令。如果
// 用 /RegServer、/Register、/Unregserver 或 /Unregister 启动应用程序，则返回 FALSE。
if (!ProcessShellCommand(cmdInfo))
return FALSE;
LoadCustomState ();
// 唯一的一个窗口已初始化，因此显示它并对其进行更新
m_pMainWnd->ShowWindow(SW_SHOW);
m_pMainWnd->UpdateWindow();
// 仅当具有后缀时才调用 DragAcceptFiles
// 在 SDI 应用程序中，这应在 ProcessShellCommand 之后发生
return TRUE;
}
