Search Smart Card Decoding Program. Exact capabilities will depend on what you're using for the hardware-accelerated decoding (e On OSX it works with the built-in Wi-Fi interfaces, and on Windows 10 it will work with remote captures Inside the Box: Decoder, Smart Card, Remote controller, Smart LNB, HDMI Cable and power pack Description With an Explora, you can record up to 220 hours of your Introduction This is the third article on using the PC/SC Smart Card API in Windows with PC/SC card readers. The code in these articles will be in C++11 using the Unicode character set and has been tested with Microsoft Visual Studio 2015 Community. It also assumed that the reader has a grasp of C++11 and Windows development. During the course of these articles we shall be developing a simple class for handling the smart card API. Unfortunately we cannot publish details specific to MIFARE DESFire technology, as these are protected under NXP™’s non-disclosure agreement with partners. Background The article shows how to use the PC/SC Windows API to detect when a card has been presented to the card reader and will then read the unique identifier UID from a the card. This code has been tested with the following Readers HID Omnikey 5021CL, ACS ACR122 & Identive CLOUD 3700 F Cards MIFARE Standard 1K, MIFARE Ultralight, MIFARE DESFire EV1 Detecting cards The steps required in detecting the presence of a contactless card require the following steps. Get context handle SCardEstablishContext Get the status of the reader that is being monitored SCardGetStatusChange Compare the dwCurrentState and dwEventState members in SCARD_READERSTATE to determine if there has been a status change. Perform the required operation on the card, read the UID in our case. Reading the status change for smartcards is a little different to other windows operations in that it is not event driven, so the smartcard sub-system needs to be polled. It should be noted that the SCardStatusChange function blocks it does not return until either a status change has occurred or the timeout has expired. To prevent the application from locking up one of the following techniques could be used Use a very short timeout – suitable if application has a polling loop. Trigger a poll via WM_TIMER OnTimer in MFC application again with a very short timeout. Use a separate thread. To read a status change, the SCardGetStatusChange function is called which has the following parameters LONG WINAPI SCardGetStatusChange _In_ SCARDCONTEXT hContext, _In_ DWORD dwTimeout, _Inout_ LPSCARD_READERSTATE rgReaderStates, _In_ DWORD cReaders ; The rgReaderStates parameter is an array of SCARD_READERSTATE structures. This structure has the following syntax typedef struct { LPCTSTR szReader; LPVOID pvUserData; DWORD dwCurrentState; DWORD dwEventState; DWORD cbAtr; BYTE rgbAtr[36]; } SCARD_READERSTATE, *PSCARD_READERSTATE, *LPSCARD_READERSTATE; The member variables are used as follows see the MSDN documentation for further details. Variable Use szReader The name of the reader to monitor, typically this name will typically have been obtained via a SCardListReaders function call. pvUserData Not used. dwCurrentState A bitfield of the last recorded state of the reader, is set by the application. dwEventState A bitfield of the current state of the reader as known by the smart card subsystem. cbAtr The number of bytes in rgbAtr. rgbAtr The ATR of the inserted card. The SCardGetStatusChange function works by comparing the dwCurrentState with the actual state of the reader. If there is a mismatch then the dwEventState is updated with the actual reader state. The SCARD_STATE_CHANGED flag will also be set to indicate that there is difference between the 2 state members. So that an accurate reader state can be initially retrieved the dwCurrentState should be set to SCARD_STATE_UNAWARE and dwEventState set to 0x00. The following code shows how this can easily be achieved. SCARD_READERSTATE readerState = {}; = _T"Identiv CLOUD 3700 F Contactless Reader 0"; = SCARD_STATE_UNAWARE; The basic code to detect that a reader has changed its status would look like this long ret = SCardGetStatusChangehSC, 1, &readerState, 1; if ret == SCARD_SUCCESS { if & SCARD_STATE_CHANGED { // the reader state has changed.... OnStateChangereaderState; // clear the SCARD_STATE_CHANGED flag = & ~SCARD_STATE_CHANGED; } } After the call to SCardGetStatusChange, dwEventState is copied to dwCurrentState but with the SCARD_STATE_CHANGED bit cleared. This is then ready to be used for the next call to SCardGetStatusChange in order to detect the next state change. The other flags for dwCurrentState and dwEventState are Value dwCurrentState Meaning dwEventState meaning SCARD_STATE_UNAWARE State is unknown dwEventState will be set to the current state of the reader on the next call to SCardGetStatusChange not used SCARD_STATE_IGNORE Not interested in this reader not used SCARD_STATE_CHANGED not used There is a difference between the expected state and the actual state SCARD_STATE_UNKNOWN not used The reader is not recognized SCARD_STATE_UNAVALABLE Reader not expected to be available for use The state for this reader is not available SCARD_STATE_EMPTY No card in reader is expected No Card in reader SCARD_STATE_PRESENT Card in reader is expected There is a card in the reader SCARD_STATE_ATRMATCH ATR of card in reader expected to match one of the target cards There is a card in the reader with an ATR that matches one of the target cards. SCARD_STATE_EXCLUSIVE Card in reader is expected to be in exclusive use by another program Card in reader is used exclusively by another program SCARD_STATE_INUSE Card in the reader is expected to be in use Card in reader is in use SCARD_STATE_MUTE Unresponsive card in the reader is expected There is an unresponsive card in the reader In order to detect the presence of a card on the reader, the SCARD_STATUS_PRESENT flag needs to be checked. To test that the card has just been presented then this flag will be clear in dwCurrentState but set in dwEventState. The following code illustrates how that is achieved bool foundCard = false; long ret = SCardGetStatusChangem_hSC, timeout, &readerState, 1; if ret == SCARD_S_SUCCESS { if & SCARD_STATE_CHANGED { if & SCARD_STATE_PRESENT == 0 && & SCARD_STATE_PRESENT { // have a card.... } = & ~SCARD_STATE_CHANGED; } } This technique can also be used to detect any of the other state conditions as well as detecting if a card has been removed. To extend the CSmartcard class from our previous article How to read a MIFARE UID using PC/SC so it can detect cards we add a new member variable to the header, like this protected stdvector m_readerState; and then initialise the vector in the ListReaders function // get a list of readers const CReaderList& CSmartcardListReaders { // initialise if not already done Init; // will auto allocate memory for the list of readers TCHAR *pszReaderList = nullptr; DWORD len = SCARD_AUTOALLOCATE; LONG ret = SCardListReaders m_hSC, NULL, // groups, using null will list all readers in the system LPWSTR&pszReaderList, // pointer where to store the readers &len; // will return the length of characters in the reader list buffer if ret == SCARD_S_SUCCESS { TCHAR *pszReader = pszReaderList; while *pszReader { pszReader += _tcslenpszReader + 1; } // free the memory ret = SCardFreeMemorym_hSC, pszReaderList; // and set up the reader state list for const auto &reader m_readers { SCARD_READERSTATE readerState = {}; = reader; = SCARD_STATE_UNAWARE; } } else { throw CSmartcardExceptionret; } return m_readers; } A new function can be added that will detect if a card has been inserted in the case of a contact card or placed on a reader if contactless. It would look like this // waits for a card to be presented to a reader bool CSmartcardWaitForCardCString & readerName, DWORD timeout { bool foundCard = false; long ret = SCardGetStatusChangem_hSC, timeout, if ret == SCARD_S_SUCCESS { // which reader had a card for auto pos = pos != && !found; ++pos { if pos->dwEventState & SCARD_STATE_CHANGED { if pos->dwCurrentState & SCARD_STATE_PRESENT == 0 && pos->dwEventState & SCARD_STATE_PRESENT { readerName = pos->szReader; foundCard = true; } pos->dwCurrentState = pos->dwEventState & ~SCARD_STATE_CHANGED; } } } return foundCard; } To use these updates to the CSmartcard class from an application the following method could be used. CSmartcard smartcard; try { // initialise the smart-card class // get a list of attached readers bool finished = false; while !finished { // test for key press to exit loop if _kbhit { finished = true; } // and wait for 1ms for a card to be presented CString readerName; if 1 { // connect to this reader _tprintf_T"Card on reader %s - UID %I64X\n", readerName, } } } catch const CSmartcardException &ex { _tprintf_T"Error %s, 0x%08x\n", } Note that the while loop will exit if any key is pressed on the keyboard. If a card is detected then it will be read and the UID is read. Card on reader Identiv CLOUD 3700 F Contactless Reader 0 - UID 42E18F2893180 Card on reader Identiv CLOUD 3700 F Contactless Reader 0 - UID FE8C8C97 Card on reader Identiv CLOUD 3700 F Contactless Reader 0 - UID 4B90DEA704880 Now what? Once the state of a card reader has been detected, it can be read or written to, in this article we have just read the card’s UID but it would, equally, be possible to read or write to the card if it was a memory card. Reading sector data from a MIFARE card will be covered in a further article to follow. Source code include " include " int _tmainint argc, _TCHAR* argv[] { CSmartcard smartcard; try { // initialise the smart-card class // get a list of attached readers bool finished = false; while !finished { // test for key press to exit loop if _kbhit { finished = true; } // and wait for 1ms for a card to be presented CString readerName; if 1 { // connect to this reader _tprintf_T"Card on reader %s - UID %I64X\n", readerName, } } } catch const CSmartcardException &ex { _tprintf_T"Error %s, 0x%08x\n", } return 0; } // defines wrapper class for PC/SC smartcard API pragma once include include include include // also need to link in pragma commentlib, " using CReaderList = stdvector; // defines wrapper class for PC/SC smart card API class CSmartcard { public CSmartcard; ~CSmartcard; // initialise interface, throws CSmartcardException void Init; // get a list of readers throws CSmartcardException const CReaderList& ListReaders; // connect to card on specified reader, throws CSmartcardException void Connectconst CString &reader; // gets the UID from the current card // returns as unsigned 64 bit int // throws CSmardcardException or CAPDUException uint64_t GetUID; // wait for card bool WaitForCardCString &readerName, DWORD timeout; protected SCARDCONTEXT m_hSC; SCARDHANDLE m_hCard; DWORD m_activeProtocol; CReaderList m_readers; stdvector m_readerState; }; // the definition of the exception class class CSmartcardException { public CSmartcardExceptionLONG errorCode m_errorCodeerrorCode { } // get error code inline LONG ErrorCode const { return m_errorCode; } // get text for error code inline CString ErrorText const { return CString_com_errorm_errorCode.ErrorMessage; } protected LONG m_errorCode; }; // exception class for APDU errors class CAPDUException { public CAPDUExceptionconst UCHAR *error CAPDUExceptionerror[0], error[1] { } CAPDUExceptionUCHAR e1, UCHAR e2 { m_errorCode = static_caste1 e2; } // get the error code inline USHORT GetErrorCode const { return m_errorCode; } inline CString GetErrorCodeText const { CString str; m_errorCode; return str; } protected USHORT m_errorCode; }; include " include " // the constructor CSmartcardCSmartcard m_hSCNULL, m_hCardNULL { } // and the destructor CSmartcard~CSmartcard { if m_hCard { SCardDisconnectm_hSC, m_hCard; } if m_hSC { SCardReleaseContextm_hSC; } } // initialise interface void CSmartcardInit { if m_hSC == NULL { LONG ret = SCardEstablishContextSCARD_SCOPE_USER, NULL, NULL, &m_hSC; if ret != SCARD_S_SUCCESS { throw CSmartcardExceptionret; } } } // get a list of readers const CReaderList& CSmartcardListReaders { // initialise if not already done Init; // will auto allocate memory for the list of readers TCHAR *pszReaderList = nullptr; DWORD len = SCARD_AUTOALLOCATE; LONG ret = SCardListReaders m_hSC, NULL, // groups, using null will list all readers in the system LPWSTR&pszReaderList, // pointer where to store the readers &len; // will return the length of characters in the reader list buffer if ret == SCARD_S_SUCCESS { TCHAR *pszReader = pszReaderList; while *pszReader { pszReader += _tcslenpszReader + 1; } // free the memory ret = SCardFreeMemorym_hSC, pszReaderList; // and set up the reader state list for const auto &reader m_readers { SCARD_READERSTATE readerState = {0}; = reader; = SCARD_STATE_UNAWARE; } } else { throw CSmartcardExceptionret; } return m_readers; } // connect to card on specified reader, throws CSmartcardException void CSmartcardConnectconst CString &reader { DWORD protocolsSCARD_PROTOCOL_T0 SCARD_PROTOCOL_T1; m_activeProtocol = 0; LONG ret = SCardConnectm_hSC, reader, SCARD_SHARE_SHARED, protocols, &m_hCard, &m_activeProtocol; if ret != SCARD_S_SUCCESS { throw CSmartcardExceptionret; } } // gets the UID from the current card, throws CSmardcardException // returns as unsigned 64 bit unsigned int uint64_t CSmartcardGetUID { uint64_t uid0; // check that have a card handle if m_hCard == NULL { throw CSmartcardExceptionSCARD_E_INVALID_HANDLE; } // create the get data APDU UCHAR sendBuffer[] = { 0xff, // CLA - the instruction class 0xCA, // INS - the instruction code 0x00, // P1 - 1st parameter to the instruction 0x00, // P2 - 2nd parameter to the instruction 0x00 // Le - size of the transfer }; UCHAR receiveBuffer[32]; DWORD sendLength; DWORD receiveLength_countofreceiveBuffer; // set up the io request SCARD_IO_REQUEST ioRequest; = m_activeProtocol; = sizeofioRequest; LONG ret = SCardTransmitm_hCard, &ioRequest, sendBuffer, _countofsendBuffer, // the send buffer & length NULL, receiveBuffer, &receiveLength; // the receive buffer and length if ret == SCARD_S_SUCCESS { // have received a response. Check that did not get an error if receiveLength >= 2 { // do we have an error if receiveBuffer[receiveLength - 2] != 0x90 receiveBuffer[receiveLength - 1] != 0x00 { throw CAPDUException &receiveBuffer[receiveLength - 2]; } else if receiveLength > 2 { for DWORD i = 0; i != receiveLength - 2; i++ { uid receiveBuffer[i]; } } } else { // didn't get a recognisable response, // so throw a generic read error throw CSmartcardExceptionERROR_READ_FAULT; } } else { throw CSmartcardExceptionret; } return uid; } // waits for a card to be presented to a reader bool CSmartcardWaitForCardCString & readerName, DWORD timeout { bool foundCard = false; long ret = SCardGetStatusChangem_hSC, timeout, if ret == SCARD_S_SUCCESS { // which reader had a card for auto pos = pos != ++pos { _tprintf_T" - reader %s - state 0x%x\n", pos->szReader, pos->dwEventState; if pos->dwEventState & SCARD_STATE_CHANGED { if pos->dwCurrentState & SCARD_STATE_PRESENT == 0 && pos->dwEventState & SCARD_STATE_PRESENT { readerName = pos->szReader; foundCard = true; } pos->dwCurrentState = pos->dwEventState & ~SCARD_STATE_CHANGED; } } } return foundCard; } pragma once include " include include include define _ATL_CSTRING_EXPLICIT_CONSTRUCTORS // some CString constructors will be explicit include include
Pasnyalain first media lagi tulisan No Smart Card is inserted nya sudah gak adapaling di beberapa channel jadi muncul tulisan : "due to interruption of transmission, this channel is temporarily unavailable - untuk sementara saluran ini tidak tersedia".
Search Smart Card Decoding Program. Without a Smart Card, you can view free-to-air channels If Automatic Upgrade is the only highlighted one, it means the deciphering/decoding MF1/M1/S50/S70 smart card Deciphering the password of MF1/Mifare One(S50/S70) Deciphering/cracking 4 Click on the end user industry below for reports, case studies and other information about how smart cards are used in
2 Pull out smart card from the decoder. Smart card mute means that the decoder can't read the sim card. Feb 09, 2016 · smart card first media. Jul 07, 2021 · smart card mute first media 07 jul, 2021 posting komentar according to markets and markets recent research report the smart card market value is expected to
LayananFirst Media menggunakan kartu yang disebut smart card, yang di tanam pada set top box atau device modul TV. Tanpa kartu tersebut, maka layanan tidak akan jalan. Smart card tersebut semacam ID untuk mengakses layanan TV. SmartCard First Media. Layanan First Media menggunakan kartu yang disebut smart card, yang di tanam pada set top box atau device modul TV. Tanpa kartu tersebut, maka layanan tidak akan jalan. Smart card tersebut semacam ID untuk mengakses layanan TV. Maka wajib ain bagi kartu tersebut harus ada. Dan valid.

Selectyour language and press OK. Follow the on-screen instructions to set up your TV and install channels. The installation wizard will guide you through the setup process. You can perform First Time Installation anytime using the related option in the Settings>Installation menu. Accessing E-Manual and the full user manual

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