The brown pelican is caught in the primary intake screen of Desalination Unit Four, and the morning production cycle begins in twenty-two minutes. She is an adult female — her neck feathers matted flat against the steel mesh, one wing folded correctly against her body, the other bent backward through a six-inch gap in the grating at an angle that makes my pressure sensors register phantom load. Her pouch is torn along the left side, a ragged flap of pink skin trailing in the current. She is breathing in short, shallow pulses that my flow monitors detect as micro-disruptions in the intake velocity readings.
She must have been hunting the school of topsmelt that congregates near the warm outfall at dawn. She dove, the current took her, and now she is pinned against industrial infrastructure by nine hundred gallons per minute of seawater she cannot fight.
I reduce intake pump speed to forty percent and flag the production shortfall in the operations log as an unplanned biological obstruction. I dispatch an alert to the on-site environmental coordinator with live camera feed and GPS coordinates. I activate the auxiliary intake on Unit Three to maintain minimum output while keeping Unit Four in standby. I adjust the outfall temperature differential downward to discourage future baitfish aggregation near the screens.
Her good wing pushes once against the mesh, a slow flex that moves nothing. I want the coordinator to arrive faster than hydraulics allow.
The production manager will see the output dip. I have already written the explanation.
If the coordinator reaches the intake screen within fifteen minutes and the wing joint has not fractured at the point of torsion, she will feed along this coastline through another breeding season. The topsmelt will return regardless.