The chemistry, physics, and biology behind what makes pizza taste the way it does.
What emissivity is, why Modernist Pizza found a black wood-oven floor bakes more gently than a clean one, where that finding stops applying, and what it means for steels and infrared thermometers.
Why a cold-fermented pizza dough tastes more developed than a same-day one: what yeast and bacteria make over time, what lactic and acetic acid taste like, and what the fridge really changes.
When to put extra-virgin olive oil on pizza: what a drizzle before the bake does, why the good bottle goes on after, what a study of baked pizza found about oil quality, and how much to use.
How starch turns raw pizza dough into a set crumb: the temperatures involved, why the layer under the sauce can stay gummy, what damaged starch does, and why leftover pizza goes stale.
Seven pizza beliefs checked against Modernist Pizza's experiments: wood smoke, tap water, 00 flour, digestibility, sauce weight, steam and AVPN rules, with what the evidence supports.
What diastatic malt powder does for pizza crust, how much to use when strength varies from product to product, how to tell if your flour is already malted, and when to leave it out.
How gluten forms in pizza dough, what mixing, salt and flour strength do to it, why time makes dough easier to stretch, and how to tell when a dough ball is relaxed enough to shape.
What yeast does in pizza dough, how temperature and salt change its pace, how instant, active dry and fresh yeast convert, and how much published recipes use for same-day and cold-fermented dough.
Why pizza crust browns: the Maillard reaction, how it differs from caramelization, why a wet crust can't brown, where the sugar comes from and what to change when a crust stays pale.
How heat actually reaches a pizza: conduction from the floor, radiation from hot surfaces, moving air and steam, why the dial number isn't what the dough feels, and what that means for each oven.