void Codec20::writeExpirationParams(transport::Transport& t,uint64_t lifespan, uint64_t maxIdle) const { uint32_t lInt= (uint32_t) lifespan; uint32_t mInt= (uint32_t) maxIdle; if ( lInt != lifespan) throw HotRodClientException("lifespan exceed 32bit integer"); if ( mInt != maxIdle) throw HotRodClientException("maxIdle exceed 32bit integer"); t.writeVInt(lInt); t.writeVInt(mInt); }
std::vector<char> Codec20::returnPossiblePrevValue(transport::Transport& t, uint8_t status, uint32_t /*flags*/) const{ std::vector<char> result; if (HotRodConstants::hasPrevious(status)) { TRACEBYTES("return value = ", result); result = t.readArray(); } else { TRACE("No return value"); } return result; }
ClientCacheEntryExpiredEvent<std::vector<char>> Codec21::readExpiredEvent(transport::Transport &transport) const { std::vector<char> key = transport.readArray(); return ClientCacheEntryExpiredEvent<std::vector<char>>(key); }
void Codec21::writeClientListenerParams(transport::Transport& t, const ClientListener& clientListener, const std::vector<std::vector<char> > &filterFactoryParams, const std::vector<std::vector<char> > &converterFactoryParams) const { Codec20::writeClientListenerParams(t,clientListener, filterFactoryParams, converterFactoryParams); t.writeByte((short)(clientListener.useRawData ? 1 : 0)); }