be the first standby named in this list that is both currently connected and streaming data in real-time (as shown by a state of streaming in the pg_stat_replication view). Other standby servers appearing catchup mode. Once the lag between standby and primary reaches zero for the first time we move to real-time streaming state. The catch-up duration may be long immediately after the standby has been created are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. 1662 NOTIFY If the same channel name is

be the first standby named in this list that is both currently connected and streaming data in real-time (as shown by a state of streaming in the pg_stat_replication view). Other standby servers appearing catchup mode. Once the lag between standby and primary reaches zero for the first time we move to real-time streaming state. The catch-up duration may be long immediately after the standby has been created are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. If the same channel name is signaled multiple

be the first standby named in this list that is both currently connected and streaming data in real-time (as shown by a state of streaming in the pg_stat_replication view). Other standby servers appearing catchup mode. Once the lag between standby and primary reaches zero for the first time we move to real-time streaming state. The catch-up duration may be long immediately after the standby has been created are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. If the same channel name is signaled multiple

be the first standby named in this list that is both currently connected and streaming data in real-time (as shown by a state of streaming in the pg_stat_replication view). Other standby servers appearing catchup mode. Once the lag between standby and primary reaches zero for the first time we move to real-time streaming state. The catch-up duration may be long immediately after the standby has been created are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. 1728 NOTIFY If the same channel name is

are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. NOTIFY behaves like Unix signals in one single parameter being optimized. Typical encodings for a gene could be binary or integer. Through simulation of the evolutionary operations recombination, mutation, and selection new genera- tions of search

are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. NOTIFY behaves like Unix signals in one single parameter being optimized. Typical encodings for a gene could be binary or integer. Through simulation of the evolutionary operations recombination, mutation, and selection new gen- erations of search

those whose names appear in this list, and that are both currently connected and streaming data in real-time (as shown by a state of streaming in the pg_stat_replication view). Specifying more than one synchronous catchup mode. Once the lag between standby and primary reaches zero for the first time we move to real-time streaming state. The catch-up duration may be long immediately after the standby has been created are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. If the same channel name is signaled multiple

those whose names appear in this list, and that are both currently connected and streaming data in real-time (as shown by a state of streaming in the pg_s- tat_replication view). Specifying more than one catchup mode. Once the lag between standby and primary reaches zero for the first time we move to real-time streaming state. The catch-up duration may be long immediately after the standby has been created are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. If the same channel name is signaled multiple

names appear earlier in this list, and that are both currently connected and streaming data in real-time (as shown by a state of streaming in the pg_stat_replication view). Other standby servers appearing catchup mode. Once the lag between standby and primary reaches zero for the first time we move to real-time streaming state. The catch-up duration may be long immediately after the standby has been created are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. 1786 NOTIFY If the same channel name is

names appear earlier in this list, and that are both currently connected and streaming data in real-time (as shown by a state of streaming in the pg_stat_replication view). Other standby servers appearing catchup mode. Once the lag between standby and primary reaches zero for the first time we move to real-time streaming state. The catch-up duration may be long immediately after the standby has been created are only delivered between transactions. The upshot of this is that applications using NOTIFY for real-time signaling should try to keep their transactions short. If the same channel name is signaled multiple