Make every committed data change immediately useful to every system that must act on it.
Remac Technologies builds a high-performance, database-agnostic transaction log processor. It turns database transaction logs into controlled paths for data movement, replication, audit, recovery, and replay.
One source of committed truth. Too many separate data paths.
Teams often use separate systems for CDC, replication, audit, recovery, and replay. Each system adds its own process, position model, failure rules, and operating burden.
These functions are not unrelated. They use the same underlying resource: the database transaction log.
Remac exists to extract the full useful value of that log through one engine and one reliability contract.
Six transaction log functions in one processing system.
Remac supports logical and physical processing. PostgreSQL is the first implemented source. MySQL, MongoDB, and Oracle are planned. Each source integration will follow its database's native log, position model, type system, and recovery rules.
Reliability needs explicit boundaries.
The Remac Contract defines seven guarantees for transaction log processing. Remac tests these guarantees under normal and hostile conditions.
Remove avoidable deficits.
Zero-Deficit Engineering treats each claimed trade-off as a design question before it accepts the trade-off. It changes the architecture, data model, execution method, or resource use to remove avoidable deficits. It accepts physical limits. It rejects deficits caused only by inherited design.
ENIVID is the first major architectural expression of this method. It connects the logical source, transaction-aware pipeline, and sinks while it enforces the Remac Contract.
Transaction log processing is data infrastructure, not only CDC.
Remac Technologies is working to establish transaction log processing as a primary data-infrastructure category. The long-term goal is direct: make every committed data change immediately useful to every system that must act on it.
One processor. Six transaction log functions.
Move committed data through one controlled path, with explicit ordering, delivery, and recovery boundaries.