[photochemsyn]

The 20th century power grid structure - baseload, load-following, and peaker - is decrepit, and this should be more generally understood. It was designed around a few centralized power plants feeding into a large regional grid from which cities and industry would draw power.

Modern electrical grids are powered by a much larger range of primary energy sources, and increasingly have distributed storage and generation as key components. This requires some sophisiticated load-balancing technology, but we're not reliant on engineers throwing switches on a mainboard like it was 1950 and slide rules were in everyone's pockets, are we? For example see:

https://www.nrel.gov/grid/advanced-distribution-management.h...

For example, if solar input to a grid at noon greatly exceeds demand, or there's strong afternoon offshore winds, an advanced grid could instruct all battery storage linked to the grid (in the form of everything from electric cars to home battery systems) to switch to absorbing that output in real-time, while keeping the overall grid energized. The notion that you'd even want a steady state baseload system dumping power into the grid in that situation makes little sense. If the sun goes down and wind dies down, then switch all the battery storage to feed into the grid, on a real-time second-by-second basis. That's how future grids will operate in the absence of either nuclear or fossil fuel inputs.