int main()
{
Time planning;
Time coding(2, 40);
Time fixing(5, 55);
Time total;
std::cout << "planning time = ";
planning.Show();
std::cout << std::endl;
std::cout << "coding time = ";
coding.Show();
std::cout << std::endl;
std::cout << "fixing time = ";
fixing.Show();
std::cout << std::endl;
total = coding.Sum(fixing);
std::cout << "coding.Sum(fixing) = ";
total.Show();
std::cout << std::endl;
return 0;
}
/*********************************************************************************************************
* Function Name: display
* Description: display a num in certain location
* Parameters: loca - location, 3-2-1-0
* num - number to display
* Return: None
*********************************************************************************************************/
void TTSDisplay::display(uchar loca, uchar dta)
{
if(loca > 3 || loca < 0)return;
dtaDisplay[loca] = dta;
loca = 3-loca;
uchar segData = coding(dta);
start(); //start signal sent to TM1637 from MCU
writeByte(ADDR_FIXED);
stop();
start();
writeByte(loca|0xc0);
writeByte(segData);
stop();
start();
writeByte(Cmd_Dispdisplay);
stop();
}
//display function.Write to full-screen.
void MyTM1637::display(int8_t DispData[],uint8_t DispFlag)
{
int8_t SegData[4];
uint8_t i;
if(DispFlag == DISPLAY_FLAG_F)
{
for(i = 0;i < 4;i ++)
{
SegData[i] = DispData[i];
}
}
if(DispFlag == DISPLAY_FLAG_B)
{
for(i = 0;i < 4;i ++)
{
SegData[3 - i] = DispData[i];
}
}
coding(SegData,DispFlag);
start(); //start signal sent to TM1637 from MCU
writeByte(ADDR_AUTO);//
stop(); //
start(); //
writeByte(Cmd_SetAddr);//
for(i=0;i < 4;i ++)
{
writeByte(SegData[i]); //
}
stop(); //
start(); //
writeByte(Cmd_DispCtrl);//
stop(); //
}
//******************************************
void Me7SegmentDisplay::display(uint8_t BitAddr, int8_t DispData)
{
int8_t SegData;
if((DispData >= 'A' && DispData <= 'F'))DispData = DispData - 'A' + 10;
else if((DispData >= 'a' && DispData <= 'f'))DispData = DispData - 'a' + 10;
SegData = coding(DispData);
write(BitAddr, SegData); //
}
/**
* \par Function
* display
* \par Description
* Display 8 bit number array.
* \param[in]
* DispData[] - The data that needs to be displayed store in this array.
* \par Output
* None
* \return
* None
* \par Others
* None
*/
void Me7SegmentDisplay::display(uint8_t DispData[])
{
uint8_t SegData[4];
uint8_t i;
for (i = 0; i < 4; i++)
{
SegData[i] = DispData[i];
}
coding(SegData);
write(SegData);
}
__RSPacket* __RSPacketDataDecrypt(__RSPacket* packet, RSPacketCoding coding, RSPacketCodingType type, void* context)
{
if (packet == nil || coding == nil) return packet;
if (isCmdPacket(packet)) return packet;
if (getEncryptType(packet) != type) return nil;
BOOL result = coding(packet->payload.data, getPacketKeyPtr(packet), packet->header.dataLength, context);
if (result == YES)
{
unMarkEncrypt(packet);
}
return packet;
}
__RSPacket* __RSPacketDataEncrypt(__RSPacket* packet, RSPacketCoding coding, RSPacketCodingType type, const char key[32], void* context)
{
if (packet == nil || coding == nil) return packet;
if (isCmdPacket(packet)) return packet;
BOOL result = coding(packet->payload.data, key, packet->header.dataLength, context);
if (result == YES)
{
setEncryptType(packet, type);
setPacketKey(packet, key);
markEncrypt(packet);
}
return packet;
}
/**
* \par Function
* display
* \par Description
* Display data to certain digit.
* \param[in]
* BitAddr - Address to display.
* \param[in]
* DispData - Data to display.
* \param[in]
* point_on - Display the point or not.
* \par Output
* None
* \return
* None
* \par Others
* None
*/
void Me7SegmentDisplay::display(uint8_t BitAddr, uint8_t DispData, uint8_t point_on)
{
uint8_t SegData;
if ((DispData >= 'A' && DispData <= 'F'))
{
DispData = DispData - 'A' + 10;
}
else if ((DispData >= 'a' && DispData <= 'f'))
{
DispData = DispData - 'a' + 10;
}
if(point_on == POINT_ON )
{
SegData = coding(DispData+0x10);
}
else
{
SegData = coding(DispData);
}
write(BitAddr, SegData);
}
//******************************************
void TM1637::display(uint8_t BitAddr,int8_t DispData)
{
int8_t SegData;
SegData = coding(DispData);
start(); //start signal sent to TM1637 from MCU
writeByte(ADDR_FIXED);//
stop(); //
start(); //
writeByte(BitAddr|0xc0);//
writeByte(SegData);//
stop(); //
start(); //
writeByte(Cmd_DispCtrl);//
stop(); //
}
//******************************************
void TM1637::display(uint8_t bit_addr, int8_t disp_data)
{
int8_t seg_data;
seg_data = coding(disp_data);
start(); // Start signal sent to TM1637 from MCU
writeByte(ADDR_FIXED); // Command1: Set data
stop();
start();
writeByte(bit_addr | 0xc0); // Command2: Set data (fixed address)
writeByte(seg_data); // Transfer display data 8 bits
stop();
start();
writeByte(cmd_disp_ctrl); // Control display
stop();
}
//******************************************
void MyTM1637::display(uint8_t BitAddr,int8_t DispData,uint8_t DispFlag)
{
int8_t SegData;
SegData = coding(DispData,DispFlag);
start(); //start signal sent to TM1637 from MCU
writeByte(ADDR_FIXED);//
stop(); //
start(); //
if(DispFlag == DISPLAY_FLAG_F)writeByte(BitAddr|0xc0);//
if(DispFlag == DISPLAY_FLAG_B)writeByte((3 - BitAddr)|0xc0);//
writeByte(SegData);//
stop(); //
start(); //
writeByte(Cmd_DispCtrl);//
stop(); //
}
int main()
{
Time planning;
Time coding(2, 40);
Time fixing(5, 55);
Time total;
std::cout << "planning: ";
planning.Show();
std::cout << "coding: ";
coding.Show();
std::cout << "fixing: ";
fixing.Show();
std::cout << "total: ";
total = coding + fixing;
total.Show();
Time morefixing(3, 28);
std::cout << "more fixing: ";
morefixing.Show();
std::cout << "total: ";
total = total + morefixing;
total.Show();
std::cout << "operator+():\n";
total = total.operator+(morefixing);
total.Show();
std::cout << total; //przeci¹¿ona wersja '<<' zwracaj¹ca referencjê do ostream
std::ofstream fout;
fout.open("tst.txt");
std::cout << "overloading <<:\n";
operator<<(std::cout, total); //lub tak: std::cout << total;
fout << total; //lub tak: operator<<(fout, total);
//fout.close();
Time something(2, 40);
Time res;
res = operator*(2.5, something);
operator<<(fout, res);
fout.close();
return 0;
}
void zip_file(string file_name)
{
vector<tree_nodes<char>*> the_sons;
tree_nodes<char>* the_tree;
std::fstream in(file_name);
std::istreambuf_iterator<char> beg(in), end;
std::string the_file(beg, end);
stat(the_file,counting);
the_sons=build_sons(counting);
the_tree=huffman_tree(the_sons);
for (int i=0; i<128;i++)
{
if (counting[i]!=0)
{
std::string temp_code="";
code[i]=get_the_code((char) i , temp_code , the_tree);
}
}
coding(code,the_file);
}
// Display function.Write to full-screen.
void TM1637::display(int8_t disp_data[])
{
int8_t seg_data[DIGITS];
uint8_t i;
for (i = 0; i < DIGITS; i++)
seg_data[i] = disp_data[i];
coding(seg_data);
start(); // Start signal sent to TM1637 from MCU
writeByte(ADDR_AUTO); // Command1: Set data
stop();
start();
writeByte(cmd_set_addr); // Command2: Set address (automatic address adding)
for (i = 0; i < DIGITS; i++)
writeByte(seg_data[i]); // Transfer display data (8 bits x num_of_digits)
stop();
start();
writeByte(cmd_disp_ctrl); // Control display
stop();
}
//display function.Write to full-screen.
void TM1637::display(int8_t DispData[])
{
int8_t SegData[4];
uint8_t i;
for(i = 0;i < 4;i ++)
{
SegData[i] = DispData[i];
}
coding(SegData);
start(); //start signal sent to TM1637 from MCU
writeByte(ADDR_AUTO);//
stop(); //
start(); //
writeByte(Cmd_SetAddr);//
for(i=0;i < 4;i ++)
{
writeByte(SegData[i]); //
}
stop(); //
start(); //
writeByte(Cmd_DispCtrl);//
stop(); //
}
// -----------------------------------------------------------------------------
// CWPPushMessage::ParseContentType
// -----------------------------------------------------------------------------
//
void CWPPushMessage::ParseContentType( TLex8& aPointer )
{
// Go through the whole content type header.
while( !aPointer.Eos() )
{
// Each parameter might be well-known (integer) or unknown (text)
if( IsIntegerValue( aPointer ) )
{
// For well-known parameters, the token is an integer value
TUint paramToken( I64LOW( GetIntegerValue( aPointer ) ) );
// These are filled with results from parsing.
TInt resultInteger( 0 );
TPtrC8 resultString;
// Make sure paramToken fits into KParameterTypes table
if( paramToken
< sizeof(KParameterTypes)/sizeof(TParameterCodingType))
{
// Get the coding and use it to determine how we should decode
// the next parameter value. We actually ignore all results
// except short integer (SEC) and text-value (MAC), but the
// rest of the parameters have to be parsed anyway.
TParameterCodingType coding( KParameterTypes[paramToken] );
switch( coding )
{
case EQValue:
GetQValue( aPointer );
break;
case EWellKnownCharset:
GetWellKnownCharset( aPointer );
break;
case EVersionValue:
GetVersionValue( aPointer );
break;
case EIntegerValue:
GetIntegerValue( aPointer );
break;
case ETextString:
GetTextString( aPointer );
break;
case EFieldName:
GetFieldName( aPointer );
break;
case EShortInteger:
resultInteger = GetShortInteger( aPointer );
break;
case EConstrainedEncoding:
GetConstrainedEncoding( aPointer );
break;
case EDeltaSecondsValue:
GetDeltaSecondsValue( aPointer );
break;
case ENoValue:
GetNoValue( aPointer );
break;
case ETextValue:
resultString.Set( GetTextValue( aPointer ) );
break;
case EDateValue:
GetDateValue( aPointer );
break;
default:
break;
}
// We have a result. We're actually only interested in
// SEC and MAC parameters, so we save them here.
switch( paramToken )
{
case KWSPHeaderSEC:
iSEC = resultInteger;
break;
case KWSPHeaderMAC:
iMAC.Set( resultString );
break;
default:
break;
}
}
}
else
{
// Unknown parameter. Its name is in text, and the value
// might be an integer or text.
GetTokenText( aPointer );
if( IsIntegerValue( aPointer ) )
{
GetIntegerValue( aPointer );
}
else
{
GetTextValue( aPointer );
}
}
}
}
void TM1637::coding(int8_t disp_data[])
{
for (uint8_t i = 0; i < DIGITS; i++)
disp_data[i] = coding(disp_data[i]);
}