After three years of silence, commercial fishing boats along California's coast are pulling in salmon again. From Bodega Bay to Morro Bay, crews have returned to the waters, and fall-run Chinook salmon are reappearing on restaurant menus and in seafood markets across the state for the first time since 2023. It's a moment worth celebrating—but the reopening, which began in May 2026 in phases with strict limits, tells only half the story.
The Pacific Fisheries Management Council, established by Congress to oversee West Coast fisheries, had shuttered the salmon fishery three years earlier after a catastrophic population collapse. Fall-run Chinook populations had plummeted 85% below their average levels from before 2005, a drop so severe that reopening at all seemed distant. The immediate culprit was brutal: the extreme drought from 2020 to 2022 devastated salmon survival as river levels plummeted and water temperatures climbed to dangerous levels. But the true roots of the crisis run deeper.
California's salmon population has been gradually weakened by decades of infrastructure and management decisions. The Sacramento-San Joaquin Basin, which once hosted one of the most productive salmon habitats in the United States, has been transformed by massive dams that block access to historic spawning grounds. Rivers have been severed from their floodplains. Water diversions for agriculture alter both the timing and temperature of river flows in ways that harm young salmon during their most vulnerable stages. What was once a rich network of diverse spawning streams, floodplains and tidal wetlands—supporting different age classes and migration timings—has been radically simplified.
This loss of ecological complexity has collided with another trend: the shift toward hatchery-raised salmon. While California's hatcheries release millions of young fish each year and were essential to making this reopening possible, they can inadvertently reduce the genetic and behavioral diversity that makes wild populations resilient to environmental shocks. Without that diversity, salmon populations have fallen into a pattern of boom-bust cycles, leading to closures in 2008–2009 and again in 2023–2025. Without significant changes, that pattern could easily repeat.
Yet California has the knowledge and tools to break the cycle. Scientists have developed forecasting models that combine snowpack, temperature and river-flow data to help managers identify when targeted water releases could provide maximum ecological benefit. Many watersheds already have the infrastructure—dams and reservoirs—needed to create "pulse flows," those temporary increases in water that help juvenile salmon migrate downstream and prevent rivers from heating to lethal temperatures during critical periods. The challenge is not technological but political: managing water flows to meet the needs of both salmon and people.
The same applies to hatcheries. Rather than maximizing sheer numbers of fish released at the same size during narrow windows, hatcheries could prioritize releasing fish with greater diversity in size, genetics and timing. These are not radical proposals—they are refinements to existing systems, rooted in decades of scientific research about how salmon actually thrive.
The reopening in May 2026 marks a genuine milestone, a sign that populations can recover with time. But without addressing the underlying system of water management, hatchery practices and habitat loss, today's good news for salmon could prove fleeting once again.