/*- * See the file LICENSE for redistribution information. * * Copyright (c) 1997-2001 * Sleepycat Software. All rights reserved. */ #include "db_config.h" #ifndef lint static const char revid[] = "$Id: cxx_env.cpp,v 11.62 2001/11/10 04:59:06 mjc Exp $"; #endif /* not lint */ #include #include // needed for set_error_stream #include #include "db_cxx.h" #include "cxx_int.h" #include "db_int.h" #include "common_ext.h" #ifdef HAVE_CXX_STDHEADERS using std::cerr; #endif // This datatype is needed for picky compilers. // extern "C" { typedef void (*db_errcall_fcn_type) (const char *, char *); }; // The reason for a static variable is that some structures // (like Dbts) have no connection to any Db or DbEnv, so when // errors occur in their methods, we must have some reasonable // way to determine whether to throw or return errors. // // This variable is taken from flags whenever a DbEnv is constructed. // Normally there is only one DbEnv per program, and even if not, // there is typically a single policy of throwing or returning. // static int last_known_error_policy = ON_ERROR_UNKNOWN; OSTREAMCLASS *DbEnv::error_stream_ = 0; // These 'glue' function are declared as extern "C" so they will // be compatible with picky compilers that do not allow mixing // of function pointers to 'C' functions with function pointers // to C++ functions. // extern "C" void _feedback_intercept_c(DB_ENV *env, int opcode, int pct) { DbEnv::_feedback_intercept(env, opcode, pct); } extern "C" void _paniccall_intercept_c(DB_ENV *env, int errval) { DbEnv::_paniccall_intercept(env, errval); } extern "C" int _recovery_init_intercept_c(DB_ENV *env) { return (DbEnv::_recovery_init_intercept(env)); } extern "C" void _stream_error_function_c(const char *prefix, char *message) { DbEnv::_stream_error_function(prefix, message); } extern "C" int _tx_recover_intercept_c(DB_ENV *env, DBT *dbt, DB_LSN *lsn, db_recops op) { return (DbEnv::_tx_recover_intercept(env, dbt, lsn, op)); } extern "C" int _rep_send_intercept_c(DB_ENV *env, const DBT *cntrl, const DBT *data, int id, u_int32_t flags) { return (DbEnv::_rep_send_intercept(env, cntrl, data, id, flags)); } // _destroy_check is called when there is a user error in a // destructor, specifically when close has not been called for an // object (even if it was never opened). If the DbEnv is being // destroyed we cannot always use DbEnv::error_stream_, so we'll // use cerr in that case. // void DbEnv::_destroy_check(const char *str, int isDbEnv) { OSTREAMCLASS *out; out = error_stream_; if (out == NULL || isDbEnv == 1) out = &cerr; (*out) << "DbEnv::_destroy_check: open " << str << " object destroyed\n"; } void DbEnv::_feedback_intercept(DB_ENV *env, int opcode, int pct) { if (env == 0) { DB_ERROR("DbEnv::feedback_callback", EINVAL, ON_ERROR_UNKNOWN); return; } DbEnv *cxxenv = (DbEnv *)env->cj_internal; if (cxxenv == 0) { DB_ERROR("DbEnv::feedback_callback", EINVAL, ON_ERROR_UNKNOWN); return; } if (cxxenv->feedback_callback_ == 0) { DB_ERROR("DbEnv::feedback_callback", EINVAL, cxxenv->error_policy()); return; } (*cxxenv->feedback_callback_)(cxxenv, opcode, pct); } void DbEnv::_paniccall_intercept(DB_ENV *env, int errval) { if (env == 0) { DB_ERROR("DbEnv::paniccall_callback", EINVAL, ON_ERROR_UNKNOWN); } DbEnv *cxxenv = (DbEnv *)env->cj_internal; if (cxxenv == 0) { DB_ERROR("DbEnv::paniccall_callback", EINVAL, ON_ERROR_UNKNOWN); } if (cxxenv->paniccall_callback_ == 0) { DB_ERROR("DbEnv::paniccall_callback", EINVAL, cxxenv->error_policy()); } (*cxxenv->paniccall_callback_)(cxxenv, errval); } int DbEnv::_recovery_init_intercept(DB_ENV *env) { if (env == 0) { DB_ERROR("DbEnv::recovery_init_callback", EINVAL, ON_ERROR_UNKNOWN); } DbEnv *cxxenv = (DbEnv *)env->cj_internal; if (cxxenv == 0) { DB_ERROR("DbEnv::recovery_init_callback", EINVAL, ON_ERROR_UNKNOWN); } if (cxxenv->recovery_init_callback_ == 0) { DB_ERROR("DbEnv::recovery_init_callback", EINVAL, cxxenv->error_policy()); } return ((*cxxenv->recovery_init_callback_)(cxxenv)); } int DbEnv::_tx_recover_intercept(DB_ENV *env, DBT *dbt, DB_LSN *lsn, db_recops op) { if (env == 0) { DB_ERROR("DbEnv::tx_recover_callback", EINVAL, ON_ERROR_UNKNOWN); return (EINVAL); } DbEnv *cxxenv = (DbEnv *)env->cj_internal; if (cxxenv == 0) { DB_ERROR("DbEnv::tx_recover_callback", EINVAL, ON_ERROR_UNKNOWN); return (EINVAL); } if (cxxenv->tx_recover_callback_ == 0) { DB_ERROR("DbEnv::tx_recover_callback", EINVAL, cxxenv->error_policy()); return (EINVAL); } Dbt *cxxdbt = (Dbt *)dbt; DbLsn *cxxlsn = (DbLsn *)lsn; return ((*cxxenv->tx_recover_callback_)(cxxenv, cxxdbt, cxxlsn, op)); } int DbEnv::_rep_send_intercept(DB_ENV *env, const DBT *cntrl, const DBT *data, int id, u_int32_t flags) { if (env == 0) { DB_ERROR("DbEnv::rep_send_callback", EINVAL, ON_ERROR_UNKNOWN); return (EINVAL); } DbEnv *cxxenv = (DbEnv *)env->cj_internal; if (cxxenv == 0) { DB_ERROR("DbEnv::rep_send_callback", EINVAL, ON_ERROR_UNKNOWN); return (EINVAL); } const Dbt *cxxcntrl = (const Dbt *)cntrl; Dbt *cxxdata = (Dbt *)data; return ((*cxxenv->rep_send_callback_)(cxxenv, cxxcntrl, cxxdata, flags, id)); } // A truism for the DbEnv object is that there is a valid // DB_ENV handle from the constructor until close(). // After the close, the DB_ENV handle is invalid and // no operations are permitted on the DbEnv (other than // destructor). Leaving the DbEnv handle open and not // doing a close is generally considered an error. // // We used to allow DbEnv objects to be closed and reopened. // This implied always keeping a valid DB_ENV object, and // coordinating the open objects between Db/DbEnv turned // out to be overly complicated. Now we do not allow this. DbEnv::DbEnv(u_int32_t flags) : imp_(0) , construct_error_(0) , construct_flags_(flags) , tx_recover_callback_(0) , paniccall_callback_(0) , rep_send_callback_(0) { int err; COMPQUIET(err, 0); if ((err = initialize(0)) != 0) DB_ERROR("DbEnv::DbEnv", err, error_policy()); } DbEnv::DbEnv(DB_ENV *env, u_int32_t flags) : imp_(0) , construct_error_(0) , construct_flags_(flags) , tx_recover_callback_(0) , paniccall_callback_(0) , rep_send_callback_(0) { int err; COMPQUIET(err, 0); if ((err = initialize(env)) != 0) DB_ERROR("DbEnv::DbEnv", err, error_policy()); } // Note: if the user has not closed, we call _destroy_check // to warn against this non-safe programming practice, // and call close anyway. // DbEnv::~DbEnv() { DB_ENV *env = unwrap(this); if (env != NULL) { _destroy_check("DbEnv", 1); (void)env->close(env, 0); // extra safety cleanup(); } } // called by Db destructor when the DbEnv is owned by DB. void DbEnv::cleanup() { DB_ENV *env = unwrap(this); if (env != NULL) { env->cj_internal = 0; imp_ = 0; } } int DbEnv::close(u_int32_t flags) { DB_ENV *env = unwrap(this); int err; // after a close (no matter if success or failure), // the underlying DB_ENV object must not be accessed, // so we clean up in advance. // cleanup(); // It's safe to throw an error after the close, // since our error mechanism does not peer into // the DB* structures. // if ((err = env->close(env, flags)) != 0) { DB_ERROR("DbEnv::close", err, error_policy()); } return (err); } void DbEnv::err(int error, const char *format, ...) { va_list args; DB_ENV *env = unwrap(this); va_start(args, format); __db_real_err(env, error, 1, 1, format, args); va_end(args); } // Return a tristate value corresponding to whether we should // throw exceptions on errors: // ON_ERROR_RETURN // ON_ERROR_THROW // ON_ERROR_UNKNOWN // int DbEnv::error_policy() { if ((construct_flags_ & DB_CXX_NO_EXCEPTIONS) != 0) { return (ON_ERROR_RETURN); } else { return (ON_ERROR_THROW); } } void DbEnv::errx(const char *format, ...) { va_list args; DB_ENV *env = unwrap(this); va_start(args, format); __db_real_err(env, 0, 0, 1, format, args); va_end(args); } void *DbEnv::get_app_private() const { return unwrapConst(this)->app_private; } // used internally during constructor // to associate an existing DB_ENV with this DbEnv, // or create a new one. If there is an error, // construct_error_ is set; this is examined during open. // int DbEnv::initialize(DB_ENV *env) { int err; last_known_error_policy = error_policy(); if (env == 0) { // Create a new DB_ENV environment. if ((err = ::db_env_create(&env, construct_flags_ & ~DB_CXX_NO_EXCEPTIONS)) != 0) { construct_error_ = err; return (err); } } imp_ = wrap(env); env->cj_internal = this; // for DB_ENV* to DbEnv* conversion return (0); } int DbEnv::lock_detect(u_int32_t flags, u_int32_t atype, int *aborted) { DB_ENV *env = unwrap(this); int err; if ((err = env->lock_detect(env, flags, atype, aborted)) != 0) { DB_ERROR("DbEnv::lock_detect", err, error_policy()); return (err); } return (err); } int DbEnv::lock_get(u_int32_t locker, u_int32_t flags, const Dbt *obj, db_lockmode_t lock_mode, DbLock *lock) { DB_ENV *env = unwrap(this); int err; if ((err = env->lock_get(env, locker, flags, obj, lock_mode, &lock->lock_)) != 0) { DB_ERROR("DbEnv::lock_get", err, error_policy()); return (err); } return (err); } int DbEnv::lock_id(u_int32_t *idp) { DB_ENV *env = unwrap(this); int err; if ((err = env->lock_id(env, idp)) != 0) { DB_ERROR("DbEnv::lock_id", err, error_policy()); } return (err); } int DbEnv::lock_id_free(u_int32_t id) { DB_ENV *env = unwrap(this); int err; if ((err = env->lock_id_free(env, id)) != 0) { DB_ERROR("DbEnv::lock_id_free", err, error_policy()); } return (err); } int DbEnv::lock_stat(DB_LOCK_STAT **statp, u_int32_t flags) { DB_ENV *env = unwrap(this); int err; if ((err = env->lock_stat(env, statp, flags)) != 0) { DB_ERROR("DbEnv::lock_stat", err, error_policy()); return (err); } return (0); } int DbEnv::lock_vec(u_int32_t locker, u_int32_t flags, DB_LOCKREQ list[], int nlist, DB_LOCKREQ **elist_returned) { DB_ENV *env = unwrap(this); int err; if ((err = env->lock_vec(env, locker, flags, list, nlist, elist_returned)) != 0) { DB_ERROR("DbEnv::lock_vec", err, error_policy()); return (err); } return (err); } int DbEnv::log_archive(char **list[], u_int32_t flags) { int err; DB_ENV *env = unwrap(this); if ((err = env->log_archive(env, list, flags)) != 0) { DB_ERROR("DbEnv::log_archive", err, error_policy()); return (err); } return (0); } int DbEnv::log_compare(const DbLsn *lsn0, const DbLsn *lsn1) { return (::log_compare(lsn0, lsn1)); } int DbEnv::log_cursor(DbLogc **cursorp, u_int32_t flags) { int err; DB_ENV *env = unwrap(this); DB_LOGC *dblogc = NULL; if ((err = env->log_cursor(env, &dblogc, flags)) != 0) { DB_ERROR("DbEnv::log_cursor", err, error_policy()); return (err); } // The following cast implies that DbLogc can be no larger than DB_LOGC *cursorp = (DbLogc*)dblogc; return (0); } int DbEnv::log_file(DbLsn *lsn, char *namep, size_t len) { int err; DB_ENV *env = unwrap(this); if ((err = env->log_file(env, lsn, namep, len)) != 0) { DB_ERROR("DbEnv::log_file", err, error_policy()); return (err); } return (0); } int DbEnv::log_flush(const DbLsn *lsn) { int err; DB_ENV *env = unwrap(this); if ((err = env->log_flush(env, lsn)) != 0) { DB_ERROR("DbEnv::log_flush", err, error_policy()); return (err); } return (0); } int DbEnv::log_put(DbLsn *lsn, const Dbt *data, u_int32_t flags) { int err = 0; DB_ENV *env = unwrap(this); if ((err = env->log_put(env, lsn, data, flags)) != 0) { DB_ERROR("DbEnv::log_put", err, error_policy()); return (err); } return (0); } int DbEnv::log_register(Db *dbp, const char *name) { int err = 0; DB_ENV *env = unwrap(this); if ((err = env->log_register(env, unwrap(dbp), name)) != 0) { DB_ERROR("DbEnv::log_register", err, error_policy()); return (err); } return (0); } int DbEnv::log_stat(DB_LOG_STAT **spp, u_int32_t flags) { int err = 0; DB_ENV *env = unwrap(this); if ((err = env->log_stat(env, spp, flags)) != 0) { DB_ERROR("DbEnv::log_stat", err, error_policy()); return (err); } return (0); } int DbEnv::log_unregister(Db *dbp) { int err; DB_ENV *env = unwrap(this); if ((err = env->log_unregister(env, unwrap(dbp))) != 0) { DB_ERROR("DbEnv::log_unregister", err, error_policy()); return (err); } return (0); } int DbEnv::memp_fcreate(DbMpoolFile **dbmfp, u_int32_t flags) { DB_ENV *env; int err; DB_MPOOLFILE *mpf; env = unwrap(this); if (env == NULL) { err = EINVAL; } else if ((err = env->memp_fcreate(env, &mpf, flags)) != 0) { DB_ERROR("DbMpoolFile::f_create", err, ON_ERROR_UNKNOWN); } else { *dbmfp = new DbMpoolFile(); (*dbmfp)->imp_ = wrap(mpf); } return (err); } int DbEnv::memp_register(int ftype, pgin_fcn_type pgin_fcn, pgout_fcn_type pgout_fcn) { DB_ENV *env; int err; env = unwrap(this); if ((err = env->memp_register(env, ftype, pgin_fcn, pgout_fcn)) != 0) { DB_ERROR("DbEnv::memp_register", err, error_policy()); return (err); } return (err); } int DbEnv::memp_stat(DB_MPOOL_STAT **gsp, DB_MPOOL_FSTAT ***fsp, u_int32_t flags) { DB_ENV *env; int err; env = unwrap(this); if ((err = env->memp_stat(env, gsp, fsp, flags)) != 0) { DB_ERROR("DbEnv::memp_stat", err, error_policy()); return (err); } return (err); } int DbEnv::memp_sync(DbLsn *sn) { DB_ENV *env; int err; env = unwrap(this); if ((err = env->memp_sync(env, sn)) != 0 && err != DB_INCOMPLETE) { DB_ERROR("DbEnv::memp_sync", err, error_policy()); return (err); } return (err); } int DbEnv::memp_trickle(int pct, int *nwrotep) { DB_ENV *env; int err; env = unwrap(this); if ((err = env->memp_trickle(env, pct, nwrotep)) != 0) { DB_ERROR("DbEnv::memp_trickle", err, error_policy()); return (err); } return (err); } // If an error occurred during the constructor, report it now. // Otherwise, call the underlying DB->open method. // int DbEnv::open(const char *db_home, u_int32_t flags, int mode) { DB_ENV *env = unwrap(this); int err; if ((err = construct_error_) != 0) DB_ERROR("Db::open", err, error_policy()); else if ((err = env->open(env, db_home, flags, mode)) != 0) DB_ERROR("DbEnv::open", err, error_policy()); return (err); } int DbEnv::remove(const char *db_home, u_int32_t flags) { DB_ENV *env; int ret; env = unwrap(this); // after a remove (no matter if success or failure), // the underlying DB_ENV object must not be accessed, // so we clean up in advance. // cleanup(); if ((ret = env->remove(env, db_home, flags)) != 0) DB_ERROR("DbEnv::remove", ret, error_policy()); return (ret); } // Report an error associated with the DbEnv. // error_policy is one of: // ON_ERROR_THROW throw an error // ON_ERROR_RETURN do nothing here, the caller will return an error // ON_ERROR_UNKNOWN defer the policy to policy saved in DbEnv::DbEnv // void DbEnv::runtime_error(const char *caller, int error, int error_policy) { if (error_policy == ON_ERROR_UNKNOWN) error_policy = last_known_error_policy; if (error_policy == ON_ERROR_THROW) { // Creating and throwing the object in two separate // statements seems to be necessary for HP compilers. DbException except(caller, error); throw except; } } // Like DbEnv::runtime_error, but issue a DbMemoryException // based on the fact that this Dbt is not large enough. void DbEnv::runtime_error_dbt(const char *caller, Dbt *dbt, int error_policy) { if (error_policy == ON_ERROR_UNKNOWN) error_policy = last_known_error_policy; if (error_policy == ON_ERROR_THROW) { // Creating and throwing the object in two separate // statements seems to be necessary for HP compilers. DbMemoryException except(caller, dbt); throw except; } } // static method char *DbEnv::strerror(int error) { return (db_strerror(error)); } void DbEnv::_stream_error_function(const char *prefix, char *message) { // HP compilers need the extra casts, we don't know why. if (error_stream_) { if (prefix) { (*error_stream_) << prefix << (const char *)": "; } if (message) { (*error_stream_) << (const char *)message; } (*error_stream_) << (const char *)"\n"; } } // set methods // This is a variant of the DB_WO_ACCESS macro to define a simple set_ // method calling the underlying C method, but unlike a simple // set method, it may return an error or raise an exception. // Note this macro expects that input _argspec is an argument // list element (e.g. "char *arg") defined in terms of "arg". // #define DB_DBENV_ACCESS(_name, _argspec) \ \ int DbEnv::set_##_name(_argspec) \ { \ int ret; \ DB_ENV *dbenv = unwrap(this); \ \ if ((ret = (*(dbenv->set_##_name))(dbenv, arg)) != 0) {\ DB_ERROR("DbEnv::set_" # _name, ret, error_policy()); \ } \ return (ret); \ } #define DB_DBENV_ACCESS_NORET(_name, _argspec) \ \ void DbEnv::set_##_name(_argspec) \ { \ DB_ENV *dbenv = unwrap(this); \ \ (*(dbenv->set_##_name))(dbenv, arg); \ return; \ } DB_DBENV_ACCESS_NORET(errfile, FILE *arg) DB_DBENV_ACCESS_NORET(errpfx, const char *arg) // We keep these alphabetical by field name, // for comparison with Java's list. // DB_DBENV_ACCESS(data_dir, const char *arg) DB_DBENV_ACCESS(lg_bsize, u_int32_t arg) DB_DBENV_ACCESS(lg_dir, const char *arg) DB_DBENV_ACCESS(lg_max, u_int32_t arg) DB_DBENV_ACCESS(lg_regionmax, u_int32_t arg) DB_DBENV_ACCESS(lk_detect, u_int32_t arg) DB_DBENV_ACCESS(lk_max, u_int32_t arg) DB_DBENV_ACCESS(lk_max_lockers, u_int32_t arg) DB_DBENV_ACCESS(lk_max_locks, u_int32_t arg) DB_DBENV_ACCESS(lk_max_objects, u_int32_t arg) DB_DBENV_ACCESS(mp_mmapsize, size_t arg) DB_DBENV_ACCESS(tmp_dir, const char *arg) DB_DBENV_ACCESS(tx_max, u_int32_t arg) // Here are the get/set methods that don't fit the above mold. // int DbEnv::set_alloc(db_malloc_fcn_type malloc_fcn, db_realloc_fcn_type realloc_fcn, db_free_fcn_type free_fcn) { DB_ENV *dbenv; dbenv = unwrap(this); return dbenv->set_alloc(dbenv, malloc_fcn, realloc_fcn, free_fcn); } void DbEnv::set_app_private(void *value) { unwrap(this)->app_private = value; } int DbEnv::set_cachesize(u_int32_t gbytes, u_int32_t bytes, int ncache) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = (*(dbenv->set_cachesize))(dbenv, gbytes, bytes, ncache)) != 0) DB_ERROR("DbEnv::set_cachesize", ret, error_policy()); return (ret); } void DbEnv::set_errcall(void (*arg)(const char *, char *)) { DB_ENV *dbenv = unwrap(this); // XXX // We are casting from a function ptr declared with C++ // linkage to one (same arg types) declared with C // linkage. It's hard to imagine a pair of C/C++ // compilers from the same vendor for which this // won't work. Unfortunately, we can't use a // intercept function like the others since the // function does not have a (DbEnv*) as one of // the args. If this causes trouble, we can pull // the same trick we use in Java, namely stuffing // a (DbEnv*) pointer into the prefix. We're // avoiding this for the moment because it obfuscates. // (*(dbenv->set_errcall))(dbenv, (db_errcall_fcn_type)arg); } // Note: This actually behaves a bit like a static function, // since DB_ENV.db_errcall has no information about which // db_env triggered the call. A user that has multiple DB_ENVs // will simply not be able to have different streams for each one. // void DbEnv::set_error_stream(OSTREAMCLASS *stream) { DB_ENV *dbenv = unwrap(this); error_stream_ = stream; dbenv->set_errcall(dbenv, (stream == 0) ? 0 : _stream_error_function_c); } int DbEnv::set_feedback(void (*arg)(DbEnv *, int, int)) { DB_ENV *dbenv = unwrap(this); feedback_callback_ = arg; return ((*(dbenv->set_feedback))(dbenv, _feedback_intercept_c)); } int DbEnv::set_flags(u_int32_t flags, int onoff) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = (dbenv->set_flags)(dbenv, flags, onoff)) != 0) DB_ERROR("DbEnv::set_flags", ret, error_policy()); return (ret); } int DbEnv::set_lk_conflicts(u_int8_t *lk_conflicts, int lk_max) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = (*(dbenv->set_lk_conflicts)) (dbenv, lk_conflicts, lk_max)) != 0) DB_ERROR("DbEnv::set_lk_conflicts", ret, error_policy()); return (ret); } int DbEnv::set_paniccall(void (*arg)(DbEnv *, int)) { DB_ENV *dbenv = unwrap(this); paniccall_callback_ = arg; return ((*(dbenv->set_paniccall))(dbenv, _paniccall_intercept_c)); } int DbEnv::set_recovery_init(int (*arg)(DbEnv *)) { DB_ENV *dbenv = unwrap(this); recovery_init_callback_ = arg; return ((*(dbenv->set_recovery_init))(dbenv, _recovery_init_intercept_c)); } int DbEnv::set_rpc_server(void *cl, char *host, long tsec, long ssec, u_int32_t flags) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = dbenv->set_rpc_server(dbenv, cl, host, tsec, ssec, flags)) != 0) DB_ERROR("DbEnv::set_rpc_server", ret, error_policy()); return (ret); } int DbEnv::set_shm_key(long shm_key) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = dbenv->set_shm_key(dbenv, shm_key)) != 0) DB_ERROR("DbEnv::set_shm_key", ret, error_policy()); return (ret); } int DbEnv::set_tas_spins(u_int32_t arg) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = dbenv->set_tas_spins(dbenv, arg)) != 0) DB_ERROR("DbEnv::set_tas_spins", ret, last_known_error_policy); return (ret); } int DbEnv::set_tx_recover (int (*arg)(DbEnv *, Dbt *, DbLsn *, db_recops)) { int ret; DB_ENV *dbenv = unwrap(this); tx_recover_callback_ = arg; if ((ret = (*(dbenv->set_tx_recover))(dbenv, _tx_recover_intercept_c)) != 0) DB_ERROR("DbEnv::set_tx_recover", ret, error_policy()); return (ret); } int DbEnv::set_tx_timestamp(time_t *timestamp) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = dbenv->set_tx_timestamp(dbenv, timestamp)) != 0) DB_ERROR("DbEnv::set_tx_timestamp", ret, error_policy()); return (ret); } int DbEnv::set_verbose(u_int32_t which, int onoff) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = (*(dbenv->set_verbose))(dbenv, which, onoff)) != 0) DB_ERROR("DbEnv::set_verbose", ret, error_policy()); return (ret); } int DbEnv::txn_begin(DbTxn *pid, DbTxn **tid, u_int32_t flags) { int err; DB_ENV *env = unwrap(this); DB_TXN *txn; if ((err = env->txn_begin(env, unwrap(pid), &txn, flags)) != 0) { DB_ERROR("DbEnv::txn_begin", err, error_policy()); return (err); } DbTxn *result = new DbTxn(); result->imp_ = wrap(txn); *tid = result; return (err); } int DbEnv::txn_checkpoint(u_int32_t kbyte, u_int32_t min, u_int32_t flags) { int err; DB_ENV *env = unwrap(this); if ((err = env->txn_checkpoint(env, kbyte, min, flags)) != 0 && err != DB_INCOMPLETE) { DB_ERROR("DbEnv::txn_checkpoint", err, error_policy()); return (err); } return (err); } int DbEnv::txn_recover(DB_PREPLIST *preplist, long count, long *retp, u_int32_t flags) { int err; DB_ENV *env = unwrap(this); if ((err = env->txn_recover(env, preplist, count, retp, flags)) != 0) { DB_ERROR("DbEnv::txn_recover", err, error_policy()); return (err); } return (err); } int DbEnv::txn_stat(DB_TXN_STAT **statp, u_int32_t flags) { int err; DB_ENV *env = unwrap(this); if ((err = env->txn_stat(env, statp, flags)) != 0) { DB_ERROR("DbEnv::txn_stat", err, error_policy()); return (err); } return (err); } int DbEnv::set_rep_transport(u_int32_t myid, int (*f_send)(DbEnv *, const Dbt *, const Dbt *, int, u_int32_t)) { int ret; DB_ENV *dbenv = unwrap(this); rep_send_callback_ = f_send; if ((ret = dbenv->set_rep_transport(dbenv, myid, _rep_send_intercept_c)) != 0) DB_ERROR("DbEnv::set_rep_transport", ret, error_policy()); return (ret); } int DbEnv::rep_elect(int nsites, int pri, u_int32_t timeout, int *idp) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = dbenv->rep_elect(dbenv, nsites, pri, timeout, idp)) != 0) DB_ERROR("DbEnv::rep_elect", ret, error_policy()); return (ret); } int DbEnv::rep_process_message(Dbt *control, Dbt *rec, int *idp) { int ret; DB_ENV *dbenv = unwrap(this); if ((ret = dbenv->rep_process_message(dbenv, control, rec, idp)) != 0 && ret != DB_REP_HOLDELECTION && ret != DB_REP_NEWSITE && ret != DB_REP_NEWMASTER && ret != DB_REP_OUTDATED) DB_ERROR("DbEnv::rep_process_message", ret, error_policy()); return (ret); } int DbEnv::rep_start(Dbt *cookie, u_int32_t flags) { int ret; DBT *cxxcookie = (DBT *)cookie; DB_ENV *dbenv = unwrap(this); if ((ret = dbenv->rep_start(dbenv, cxxcookie, flags)) != 0) DB_ERROR("DbEnv::rep_start", ret, error_policy()); return (ret); } int DbEnv::set_timeout(db_timeout_t timeout, u_int32_t flags) { int err; DB_ENV *env = unwrap(this); if ((err = env->set_timeout(env, timeout, flags)) != 0) { DB_ERROR("DbEnv::set_timeout", err, error_policy()); return (err); } return (err); } // static method char *DbEnv::version(int *major, int *minor, int *patch) { return (db_version(major, minor, patch)); }