int runRestoreBankAndVerify(NDBT_Context* ctx, NDBT_Step* step){
NdbRestarter restarter;
NdbBackup backup(GETNDB(step)->getNodeId()+1);
unsigned minBackupId = ctx->getProperty("MinBackupId");
unsigned maxBackupId = ctx->getProperty("MaxBackupId");
unsigned backupId = minBackupId;
int result = NDBT_OK;
int errSumAccounts = 0;
int errValidateGL = 0;
ndbout << " maxBackupId = " << maxBackupId << endl;
ndbout << " minBackupId = " << minBackupId << endl;
while (backupId <= maxBackupId){
// TEMPORARY FIX
// To erase all tables from cache(s)
// To be removed, maybe replaced by ndb.invalidate();
{
Bank bank(ctx->m_cluster_connection);
if (bank.dropBank() != NDBT_OK){
result = NDBT_FAILED;
break;
}
}
// END TEMPORARY FIX
ndbout << "Performing restart" << endl;
if (restarter.restartAll(false) != 0)
return NDBT_FAILED;
if (restarter.waitClusterStarted() != 0)
return NDBT_FAILED;
ndbout << "Dropping " << tabname << endl;
NdbDictionary::Dictionary* pDict = GETNDB(step)->getDictionary();
pDict->dropTable(tabname);
ndbout << "Restoring backup " << backupId << endl;
if (backup.restore(backupId) == -1){
return NDBT_FAILED;
}
ndbout << "Backup " << backupId << " restored" << endl;
// Let bank verify
Bank bank(ctx->m_cluster_connection);
int wait = 0;
int yield = 1;
if (bank.performSumAccounts(wait, yield) != 0){
ndbout << "bank.performSumAccounts FAILED" << endl;
ndbout << " backupId = " << backupId << endl << endl;
result = NDBT_FAILED;
errSumAccounts++;
}
if (bank.performValidateAllGLs() != 0){
ndbout << "bank.performValidateAllGLs FAILED" << endl;
ndbout << " backupId = " << backupId << endl << endl;
result = NDBT_FAILED;
errValidateGL++;
}
backupId++;
}
if (result != NDBT_OK){
ndbout << "Verification of backup failed" << endl
<< " errValidateGL="<<errValidateGL<<endl
<< " errSumAccounts="<<errSumAccounts<<endl << endl;
}
return result;
}
int
main(int argc, char **argv)
{
gridpack::parallel::Environment env(argc, argv);
// Create an artificial scope so that all objects call their destructors
// before GA_Terminate is called
if (1) {
gridpack::parallel::Communicator world;
int me = world.rank();
int nproc = world.size();
if (me == 0) {
printf("Testing GlobalStore on %d processors\n\n",nproc);
}
int lo = me*MAX_VEC/nproc;
int hi = (me+1)*MAX_VEC/nproc-1;
int i, j;
gridpack::parallel::GlobalStore<data_type> bank(world);
// Store vectors in global store object
for (i=lo; i<=hi; i++) {
std::vector<data_type> vec;
for (j=0; j<VEC_LEN+me; j++) {
data_type item;
item.ival = j+me;
item.dval = static_cast<double>(j+me+1);
vec.push_back(item);
}
//printf("p[%d] vec[%d].size: %d\n",me,i,vec.size());
bank.addVector(i,vec);
}
// Upload vectors to global data object
bank.upload();
// Check values
if (me < nproc-1) {
lo = (me+1)*MAX_VEC/nproc;
hi = (me+2)*MAX_VEC/nproc-1;
} else {
lo = 0;
hi = MAX_VEC/nproc-1;
}
int ichk = me + 1;
if (me==nproc-1) ichk = 0;
int chk = 1;
for (i=lo; i<=hi; i++) {
std::vector<data_type> vec;
bank.getVector(i, vec);
for (j=0; j<VEC_LEN+ichk; j++) {
bool ok = false;
if (vec[j].ival == j+ichk &&
vec[j].dval == static_cast<double>(j+ichk+1)) ok = true;
if (!ok && j==0) {
printf("p[%d] Mistake found at (vec[%d])[%d]. Expected ival: %d dval: %d"
" Actual ival: %f dval: %f\n",me,i,j,j+ichk,vec[j].ival,
static_cast<double>(j+ichk+1),vec[j].dval);
chk = 0;
}
}
}
world.sync();
world.sum(&chk,1);
if (chk == nproc && me == 0) {
printf("Vectors OK\n");
} else if (chk < nproc && me == 0) {
printf("Error found in vectors\n");
}
}
return 0;
}
int runDropBank(NDBT_Context* ctx, NDBT_Step* step){
Bank bank(ctx->m_cluster_connection);
if (bank.dropBank() != NDBT_OK)
return NDBT_FAILED;
return NDBT_OK;
}
// Lucre step 3: the mint signs the token
//
bool OTMint_Lucre::SignToken(OTPseudonym & theNotary, OTToken & theToken, OTString & theOutput, int32_t nTokenIndex)
{
bool bReturnValue = false;
//OTLog::Error("%s <bank file> <coin request> <coin signature> [<signature repeats>]\n",
_OT_Lucre_Dumper setDumper;
// OTLog::vError("OTMint::SignToken!!\nnTokenIndex: %d\n Denomination: %lld\n", nTokenIndex, theToken.GetDenomination());
OpenSSL_BIO bioBank = BIO_new(BIO_s_mem()); // input
OpenSSL_BIO bioRequest = BIO_new(BIO_s_mem()); // input
OpenSSL_BIO bioSignature = BIO_new(BIO_s_mem()); // output
OTASCIIArmor thePrivate;
GetPrivate(thePrivate, theToken.GetDenomination());
// The Mint private info is encrypted in m_mapPrivates[theToken.GetDenomination()].
// So I need to extract that first before I can use it.
OTEnvelope theEnvelope(thePrivate);
OTString strContents; // output from opening the envelope.
// Decrypt the Envelope into strContents
if (!theEnvelope.Open(theNotary, strContents))
return false;
// copy strContents to a BIO
BIO_puts(bioBank, strContents.Get());
// OTLog::vError("BANK CONTENTS:\n%s--------------------------------------\n", strContents.Get());
// Instantiate the Bank with its private key
Bank bank(bioBank);
// OTLog::vError("BANK INSTANTIATED.--------------------------------------\n");
// I need the request. the prototoken.
OTASCIIArmor ascPrototoken;
bool bFoundToken = theToken.GetPrototoken(ascPrototoken, nTokenIndex);
if (bFoundToken)
{
// base64-Decode the prototoken
OTString strPrototoken(ascPrototoken);
// OTLog::vError("\n--------------------------------------\nDEBUG: PROTOTOKEN CONTENTS:\n"
// "-----------------%s---------------------\n", strPrototoken.Get() );
// copy strPrototoken to a BIO
BIO_puts(bioRequest, strPrototoken.Get());
// Load up the coin request from the bio (the prototoken)
PublicCoinRequest req(bioRequest);
// OTLog::Error("PROTOTOKEN INSTANTIATED.--------------------------------------\n");
// Sign it with the bank we previously instantiated.
// results will be in bnSignature (BIGNUM)
BIGNUM * bnSignature = bank.SignRequest(req);
if (NULL == bnSignature)
{
OTLog::Error("MAJOR ERROR!: Bank.SignRequest failed in OTMint_Lucre::SignToken\n");
}
else
{
// OTLog::Error("BANK.SIGNREQUEST SUCCESSFUL.--------------------------------------\n");
// Write the request contents, followed by the signature contents,
// to the Signature bio. Then free the BIGNUM.
req.WriteBIO(bioSignature); // the original request contents
DumpNumber(bioSignature,"signature=", bnSignature); // the new signature contents
BN_free(bnSignature);
// Read the signature bio into a C-style buffer...
char sig_buf[1024]; // todo stop hardcoding these string lengths
// memset(sig_buf, 0, 1024); // zero it out. (I had this commented out, but the size was 2048, so maybe it's safe now at 1024.)
int32_t sig_len = BIO_read(bioSignature, sig_buf, 1000); // cutting it a little short on purpose, with the buffer. Just makes me feel more comfortable for some reason.
// Add the null terminator by hand (just in case.)
sig_buf[sig_len] = '\0';
if (sig_len)
{ // ***********************************************
// OTLog::vError("\n--------------------------------------\n"
// "*** Siglen is %d. sig_str_len is %d.\nsig buf:\n------------%s------------\nLAST "
// "CHARACTER IS '%c' SECOND TO LAST CHARACTER IS '%c'\n",
// sig_len, sig_str_len, sig_buf, sig_buf[sig_str_len-1], sig_buf[sig_str_len-2]);
// Copy the original coin request into the spendable field of the token object.
// (It won't actually be spendable until the client processes it, though.)
theToken.SetSpendable(ascPrototoken);
// OTLog::vError("*** SPENDABLE:\n-----------%s---------------------\n", ascPrototoken.Get());
// Base64-encode the signature contents into theToken.m_Signature.
OTString strSignature(sig_buf);
// strSignature.Set(sig_buf, sig_len-1); // sig_len includes null terminator, whereas Set() adds 1 for it.
// OTLog::vError("SIGNATURE:\n--------------------%s"
// "------------------\n", strSignature.Get());
// Here we pass the signature back to the caller.
// He will probably set it onto the token.
theOutput.Set(sig_buf, sig_len);
bReturnValue = true;
// This is also where we set the expiration date on the token.
// The client should have already done this, but we are explicitly
// setting the values here to prevent any funny business.
theToken.SetSeriesAndExpiration(m_nSeries, m_VALID_FROM, m_VALID_TO);
}
}
}
return bReturnValue;
}
// The mint has a different key pair for each denomination.
// Pass the actual denomination such as 5, 10, 20, 50, 100...
bool OTMint_Lucre::AddDenomination(OTPseudonym & theNotary, int64_t lDenomination, int32_t nPrimeLength/*=1024*/)
{
OT_ASSERT(NULL != m_pKeyPublic);
bool bReturnValue = false;
// Let's make sure it doesn't already exist
OTASCIIArmor theArmor;
if (GetPublic(theArmor, lDenomination))
{
// it already exists.
OTLog::Error("Error: Denomination public already exists in OTMint::AddDenomination\n");
return false;
}
if (GetPrivate(theArmor, lDenomination))
{
// it already exists.
OTLog::Error("Error: Denomination private already exists in OTMint::AddDenomination\n");
return false;
}
// OTLog::Error("%s <size of bank prime in bits> <bank data file> <bank public data file>\n",
if ((nPrimeLength/8) < (MIN_COIN_LENGTH+DIGEST_LENGTH))
{
OTLog::vError("Prime must be at least %d bits\n",
(MIN_COIN_LENGTH+DIGEST_LENGTH)*8);
return false;
}
if (nPrimeLength%8)
{
OTLog::Error("Prime length must be a multiple of 8\n");
return false;
}
#ifdef _WIN32
SetMonitor("openssl.dump");
#else
SetMonitor(stderr);
#endif
OpenSSL_BIO bio = BIO_new(BIO_s_mem());
OpenSSL_BIO bioPublic = BIO_new(BIO_s_mem());
// Generate the mint private key information
Bank bank(nPrimeLength/8);
bank.WriteBIO(bio);
// Generate the mint public key information
PublicBank pbank(bank);
pbank.WriteBIO(bioPublic);
// Copy from BIO back to a normal OTString or Ascii-Armor
char privateBankBuffer[4096], publicBankBuffer[4096]; // todo stop hardcoding these string lengths
int32_t privatebankLen = BIO_read(bio, privateBankBuffer, 4000); // cutting it a little short on purpose, with the buffer.
int32_t publicbankLen = BIO_read(bioPublic, publicBankBuffer, 4000); // Just makes me feel more comfortable for some reason.
if (privatebankLen && publicbankLen)
{
// With this, we have the Lucre public and private bank info converted to OTStrings
OTString strPublicBank; strPublicBank.Set(publicBankBuffer, publicbankLen);
OTString strPrivateBank; strPrivateBank.Set(privateBankBuffer, privatebankLen);
OTASCIIArmor * pPublic = new OTASCIIArmor();
OTASCIIArmor * pPrivate = new OTASCIIArmor();
OT_ASSERT(NULL != pPublic);
OT_ASSERT(NULL != pPrivate);
// Set the public bank info onto pPublic
pPublic->SetString(strPublicBank, true); // linebreaks = true
// Seal the private bank info up into an encrypted Envelope
// and set it onto pPrivate
OTEnvelope theEnvelope;
theEnvelope.Seal(theNotary, strPrivateBank); // Todo check the return values on these two functions
theEnvelope.GetAsciiArmoredData(*pPrivate);
// Add the new key pair to the maps, using denomination as the key
m_mapPublic[lDenomination] = pPublic;
m_mapPrivate[lDenomination] = pPrivate;
// Grab the Server Nym ID and save it with this Mint
theNotary.GetIdentifier(m_ServerNymID);
// ---------------------------
// Grab the Server's public key and save it with this Mint
//
const OTAsymmetricKey & theNotaryPubKey = theNotary.GetPublicSignKey();
delete m_pKeyPublic;
m_pKeyPublic = theNotaryPubKey.ClonePubKey();
// ---------------------------
m_nDenominationCount++;
// ---------------------------
// Success!
bReturnValue = true;
OTLog::vOutput(1, "Successfully added denomination: %lld\n", lDenomination);
}
return bReturnValue;
}
/** Prints the contents of each group as XML tags and values */
int SaveToSNSHistogramNexus::WriteGroup(int is_definition) {
int status, dataType, dataRank, dataDimensions[NX_MAXRANK];
NXname name, theClass;
void *dataBuffer;
NXlink link;
do {
status = NXgetnextentry(inId, name, theClass, &dataType);
// std::cout << name << "(" << theClass << ")\n";
if (status == NX_ERROR)
return NX_ERROR;
if (status == NX_OK) {
if (!strncmp(theClass, "NX", 2)) {
if (NXopengroup(inId, name, theClass) != NX_OK)
return NX_ERROR;
add_path(name);
if (NXgetgroupID(inId, &link) != NX_OK)
return NX_ERROR;
if (!strcmp(current_path, link.targetPath)) {
// Create a copy of the group
if (NXmakegroup(outId, name, theClass) != NX_OK)
return NX_ERROR;
if (NXopengroup(outId, name, theClass) != NX_OK)
return NX_ERROR;
if (WriteAttributes(is_definition) != NX_OK)
return NX_ERROR;
if (WriteGroup(is_definition) != NX_OK)
return NX_ERROR;
remove_path(name);
} else {
remove_path(name);
strcpy(links_to_make[links_count].from, current_path);
strcpy(links_to_make[links_count].to, link.targetPath);
strcpy(links_to_make[links_count].name, name);
links_count++;
if (NXclosegroup(inId) != NX_OK)
return NX_ERROR;
}
} else if (!strncmp(theClass, "SDS", 3)) {
add_path(name);
if (NXopendata(inId, name) != NX_OK)
return NX_ERROR;
if (NXgetdataID(inId, &link) != NX_OK)
return NX_ERROR;
std::string data_label(name);
if (!strcmp(current_path, link.targetPath)) {
// Look for the bank name
std::string path(current_path);
std::string bank("");
size_t a = path.rfind('/');
if (a != std::string::npos && a > 0) {
size_t b = path.rfind('/', a - 1);
if (b != std::string::npos && (b < a) && (a - b - 1) > 0) {
bank = path.substr(b + 1, a - b - 1);
// std::cout << current_path << ":bank " << bank << "\n";
}
}
//---------------------------------------------------------------------------------------
if (data_label == "data" && (bank != "")) {
if (this->WriteDataGroup(bank, is_definition) != NX_OK)
return NX_ERROR;
;
}
//---------------------------------------------------------------------------------------
else if (data_label == "time_of_flight" && (bank != "")) {
// Get the original info
if (NXgetinfo(inId, &dataRank, dataDimensions, &dataType) != NX_OK)
return NX_ERROR;
// Get the X bins
const MantidVec &X = inputWorkspace->readX(0);
// 1 dimension, with that number of bin boundaries
dataDimensions[0] = static_cast<int>(X.size());
// The output TOF axis will be whatever size in the workspace.
boost::scoped_array<float> tof_data(new float[dataDimensions[0]]);
// And fill it with the X data
for (size_t i = 0; i < X.size(); i++)
tof_data[i] = float(X[i]);
if (NXcompmakedata(outId, name, dataType, dataRank, dataDimensions,
NX_COMP_LZW, dataDimensions) != NX_OK)
return NX_ERROR;
if (NXopendata(outId, name) != NX_OK)
return NX_ERROR;
if (WriteAttributes(is_definition) != NX_OK)
return NX_ERROR;
if (NXputdata(outId, tof_data.get()) != NX_OK)
return NX_ERROR;
if (NXclosedata(outId) != NX_OK)
return NX_ERROR;
}
//---------------------------------------------------------------------------------------
else {
// Everything else gets copies
if (NXgetinfo(inId, &dataRank, dataDimensions, &dataType) != NX_OK)
return NX_ERROR;
if (NXmalloc(&dataBuffer, dataRank, dataDimensions, dataType) !=
NX_OK)
return NX_ERROR;
if (NXgetdata(inId, dataBuffer) != NX_OK)
return NX_ERROR;
if (NXcompmakedata(outId, name, dataType, dataRank, dataDimensions,
NX_COMP_LZW, dataDimensions) != NX_OK)
return NX_ERROR;
if (NXopendata(outId, name) != NX_OK)
return NX_ERROR;
if (WriteAttributes(is_definition) != NX_OK)
return NX_ERROR;
if (NXputdata(outId, dataBuffer) != NX_OK)
return NX_ERROR;
if (NXfree(&dataBuffer) != NX_OK)
return NX_ERROR;
if (NXclosedata(outId) != NX_OK)
return NX_ERROR;
}
remove_path(name);
} else {
// Make a link
remove_path(name);
strcpy(links_to_make[links_count].from, current_path);
strcpy(links_to_make[links_count].to, link.targetPath);
strcpy(links_to_make[links_count].name, name);
links_count++;
}
if (NXclosedata(inId) != NX_OK)
return NX_ERROR;
}
} else if (status == NX_EOD) {
if (NXclosegroup(inId) != NX_OK)
return NX_ERROR;
if (NXclosegroup(outId) != NX_OK)
return NX_ERROR;
return NX_OK;
}
} while (status == NX_OK);
return NX_OK;
}
Layer::List Factory::toLayers(Data::Base& data)
{
Layer::List layers;
//qDebug() << "Layer::Factory converting" << Data::Type::toString(data.typeID());
try {
switch (data.typeID()) {
case Data::Type::Bank: {
Data::Bank& bank(dynamic_cast<Data::Bank&>(data));
layers << convert(bank);
} break;
case Data::Type::GeometryList: {
Data::GeometryList& list(dynamic_cast<Data::GeometryList&>(data));
layers << convert(list);
} break;
case Data::Type::Geometry: {
Data::Geometry& geometry(dynamic_cast<Data::Geometry&>(data));
layers << convert(geometry);
} break;
case Data::Type::PointChargeList: {
Data::PointChargeList& charges(dynamic_cast<Data::PointChargeList&>(data));
layers << convert(charges);
} break;
case Data::Type::MolecularOrbitalsList: {
Data::MolecularOrbitalsList& list(dynamic_cast<Data::MolecularOrbitalsList&>(data));
layers << convert(list);
} break;
case Data::Type::MolecularOrbitals: {
Data::MolecularOrbitals&
molecularOrbitals(dynamic_cast<Data::MolecularOrbitals&>(data));
layers.append(new MolecularOrbitals(molecularOrbitals));
} break;
case Data::Type::ExcitedStates: {
Data::ExcitedStates&
states(dynamic_cast<Data::ExcitedStates&>(data));
layers.append(new ExcitedStates(states));
} break;
case Data::Type::Frequencies: {
Data::Frequencies&
frequencies(dynamic_cast<Data::Frequencies&>(data));
layers.append(new Frequencies(frequencies));
} break;
case Data::Type::FileList: {
Data::FileList& fileList(dynamic_cast<Data::FileList&>(data));
layers << convert(fileList);
} break;
case Data::Type::GridData: {
QLOG_WARN() << "Data::GridData passed to LayerFactory";
//Data::GridData& grid(dynamic_cast<Data::GridData&>(data));
//layers.append(new CubeData(grid));
} break;
case Data::Type::CubeData: {
Data::CubeData& cube(dynamic_cast<Data::CubeData&>(data));
layers.append(new CubeData(cube));
} break;
case Data::Type::EfpFragment: {
Data::EfpFragment& efp(dynamic_cast<Data::EfpFragment&>(data));
layers.append(new EfpFragment(efp));
} break;
case Data::Type::EfpFragmentList: {
Data::EfpFragmentList&
efpList(dynamic_cast<Data::EfpFragmentList&>(data));
layers << convert(efpList);
} break;
case Data::Type::Mesh: {
Data::Mesh& meshData(dynamic_cast<Data::Mesh&>(data));
Data::Surface surface(meshData);
Layer::Surface* surfaceLayer(new Surface(surface));
surfaceLayer->setCheckState(Qt::Checked);
layers.append(surfaceLayer);
} break;
case Data::Type::Surface: {
Data::Surface& surfaceData(dynamic_cast<Data::Surface&>(data));
Layer::Surface* surfaceLayer(new Surface(surfaceData));
surfaceLayer->setCheckState(surfaceData.isVisible() ? Qt::Checked : Qt::Unchecked);
layers.append(surfaceLayer);
} break;
case Data::Type::Nmr: {
Data::Nmr& nmrData(dynamic_cast<Data::Nmr&>(data));
Layer::Nmr* nmrLayer(new Nmr(nmrData));
layers.append(nmrLayer);
} break;
default:
QLOG_WARN() << "Unimplemented data type in Layer::Factory"
<< Data::Type::toString(data.typeID());
break;
}
} catch (const std::bad_cast& e) {
QLOG_ERROR() << "Data cast in Layer::Factory failed"
<< Data::Type::toString(data.typeID());
}
return layers;
}
int main(int argc, char** argv) {
Player **Gamer;
int numberOfGamers = 6; // количество игроков за столом
int numberOfRounds=4;
Gamer = new Player*[6]; // 6 игроков
Pack Cards(0); // колода карт
Card FiveCard[5]; // 5 общих карт
int nRound = 1; // первый круг торговли
/* создадим numberOfGamers игроков */
for (int i = 0; i < numberOfGamers; i++) {
Gamer[i] = new Player("Gamer" + from_int(i), 50, i);
Gamer[i][0].SetCards(Cards.getCard(), Cards.getCard());
std::cout << Gamer[i][0].getLogin() << " "
<< Gamer[i][0].GetFirstCard().getRank() << " of "
<< Gamer[i][0].GetFirstCard().getSuit() << " ";
std::cout << Gamer[i][0].GetSecondCard().getRank() << " of "
<< Gamer[i][0].GetSecondCard().getSuit() << std::endl;
}
// ставки игроков для теста
/*
int Stavki[4][6] = {
{ 2, 2, 2, 2, 2, 2 },
{ 6, 5, 6, 6, 6, 6 },
{ 6, 0, 4, 5, 6, 6 },
{ 2, 0, 0, 0, 4, 5 } };*/
int **Stavki= new int*[numberOfRounds];
for (int i=0;i<numberOfRounds;i++)
Stavki[i]= new int[numberOfGamers];
createSetOfStakes(Stavki,numberOfRounds,numberOfGamers);
// объявление банка
Bank bank(Gamer, numberOfGamers);
// круг торговли и заполнение банка
std::cout << "Round " << nRound << std::endl;
// ставки игроков
for (int i = 0; i < numberOfGamers; i++) {
std::cout << "Gamer" << i + 1 << " stake is " << Stavki[nRound - 1][i]
<< " ";
bank.addPlayer(*Gamer[i], Stavki[nRound - 1][i], nRound - 1);
}
std::cout << std::endl;
std::cout << "------------Card Pack-----------" << std::endl;
for (int i = 0; i < 3; i++) {
FiveCard[i] = Cards.getCard();
std::cout << FiveCard[i].getRank() << " of " << FiveCard[i].getSuit()
<< std::endl;
}
// круг торговли и заполнение банка
std::cout << "Round " << ++nRound <<std::endl;
// ставки игроков
for (int i = 0; i < numberOfGamers; i++) {
std::cout << "Gamer" << i + 1 << " stake is" << Stavki[nRound - 1][i]
<< " ";
bank.addPlayer(*Gamer[i], Stavki[nRound - 1][i], nRound - 1);
}
std::cout << std::endl;
std::cout << "------------Card Pack-----------" << std::endl;
FiveCard[3] = Cards.getCard();
for (int i = 0; i < 4; i++) {
std::cout << FiveCard[i].getRank() << " of " << FiveCard[i].getSuit()
<< std::endl;
}
// круг торговли и заполнение банка
std::cout << "Round " << ++nRound << std::endl;;
// ставки игроков
for (int i = 0; i < numberOfGamers; i++) {
std::cout << "Gamer" << i + 1 << " stake is " << Stavki[nRound - 1][i]
<< " ";
bank.addPlayer(*Gamer[i], Stavki[nRound - 1][i], nRound - 1);
}
std::cout << std::endl;
std::cout << "------------Card Pack-----------" << std::endl;
FiveCard[4] = Cards.getCard();
for (int i = 0; i < 5; i++) {
std::cout << FiveCard[i].getRank() << " of " << FiveCard[i].getSuit()
<< std::endl;
}
// последний круг торговли и заполнение банка
std::cout << "Round " << ++nRound << std::endl;
// ставки игроков
for (int i = 0; i < numberOfGamers; i++) {
std::cout << "Gamer" << i + 1 << " stake is" << Stavki[nRound - 1][i]
<< " ";
bank.addPlayer(*Gamer[i], Stavki[nRound - 1][i], nRound - 1);
}
std::cout << std::endl;
Calculation counting(Gamer, FiveCard, 6);
counting.WinnersCalc();
for (int i = 0; i < 6; i++) {
std::cout << Gamer[i][0].getLogin() << " is in "
<< Gamer[i][0].getWinPlace() << " place " << " has "
<< counting.GetCombinationName(Gamer[i]) << std::endl;
}
// раздача денег
bank.winners();
std::cout << std::endl;
for (int i = 0; i < numberOfGamers; i++) {
std::cout << "Position table: " << Gamer[i]->getPosition() << " "<<Gamer[i]->getLogin()<<" ";
std::cout << Gamer[i]->getPurse() << "$"<<std::endl;
}
std::cout << "SumBank: " << bank.getSumBank() << std::endl;
for (int i = 0; i < 6; i++) {
delete[] Gamer[i];
}
delete[] Gamer;
return 0;
}
