Bread
Baked goods built on a developed gluten network that traps fermentation gas, giving an open, chewy structure.
What unites the family
Structure comes from a hydrated, developed gluten network that is strong enough to retain gas produced by fermentation, and elastic enough to expand as it does.
What separates bread from everything else here
Almost every other family on this site is defined by keeping gluten development low. Bread is the family that wants it. Flour is hydrated and worked until glutenin and gliadin form a continuous elastic network, and that network is what turns a gas-producing biological process into a risen loaf rather than a puddle.
This is also why bread is the family where flour choice matters most. A flour with more and better-quality protein builds a stronger network, holds more gas, and tolerates a longer fermentation before it fails.
The variables that actually move the result
Hydration, fermentation time, temperature and the amount of leaven do most of the work. Everything else — shaping style, scoring pattern, tin or no tin — changes the character rather than the fundamentals.
Because those four variables interact, a change to one usually requires a change to another. A wetter dough ferments faster at the same temperature; a cooler kitchen needs longer or more leaven. This is the reason clock-based instructions fail so often and observation-based ones do not.
Related
Products in this family
Structure comes from a developed gluten network holding fermentation gas, which is the family’s defining characteristic.
The reference lean dough, and the baseline the rest of the bread family is usefully understood as departing from.
A lean bread dough optimised for extensibility and very fast baking rather than for loaf volume.
A member of the family by intent and by use, and a departure from it by mechanism — which is exactly what makes it worth modelling as a product rather than as a note on another one.
A yeasted wheat bread, differing from a loaf in shape and hydration rather than in kind.
Enriched bread. The family is the same as a plain loaf; the fat and egg change everything about the method.
A yeasted wheat bread. The boil makes it distinctive; it does not make it a different family.
A lean yeasted bread whose character comes from what happens to its surface.
The lean bread against which other lean breads are measured.
An enriched yeasted bread. It holds gas in a gluten network like any wheat bread; the enrichment changes the timing rather than the mechanism.
Filed as bread because that is what it is called and where readers look. Structurally it is a quick bread with almost no gluten, and the record says so rather than implying a yeasted loaf.
A leavened wheat flatbread. The gluten network and the fermentation are ordinary; the heat regime is not.
A lean wheat dough whose entire character is a gluten network holding an unusual amount of water.
Filed under bread by use and by form. Structurally it is the family’s outlier: its crumb is held by pentosans and set starch rather than by gluten, and the family’s usual reasoning has to be applied with that in mind.
Bread by use and by form, and chemically leavened. The family’s fermentation reasoning does not apply to it, which is why its diagnostic edges are drawn so narrowly.
A leavened wheat dough. The form is flat because of how it is heated, not because the family rule fails.
An enriched yeasted dough, with the family’s fermentation behaviour slowed by the enrichment.
Ordinary bread dough at a scale where surface area governs almost everything.
An enriched lean-dough descendant, built on a gluten network like the rest of the family.
Glossary terms defined here
Crumb
Crumb description is most developed in bread, where open and close crumbs are both legitimate targets.
Covered in
How to store baked things, and why the rules differ
A loaf is wetter than the air and loses water, so it wants protection from drying and its crust pays for it.
Storing bread, and the trade-off you cannot avoid
The canonical bread storage resource, and the one that states the crust-against-crumb trade-off nothing can avoid.
What freezes well, and what freezing actually does
Freezing takes bread quickly through the range where retrogradation runs fastest, which is why it beats the fridge.
Reheating: what it can undo, and what it cannot
Where the scoped staling-reversal evidence lives: reheating undoes the amylopectin part and not the rest.
History and culture
Flatbreads, and why almost every baking culture has one
Where the family’s oldest and most widely distributed form sits.