Featured guide · Dough, crust and baking traditions

Pizza Styles

Pizza styles are shaped by much more than whether the crust is “thin” or “thick.” Hydration, dough weight, fermentation, shaping, oil, baking surface and oven temperature all influence the structure of the finished pizza.

A Neapolitan pizza can be thin through the centre but dramatically inflated around the rim. A New York slice is also thin, yet usually firmer, chewier and crisp enough to fold. Detroit, Sicilian and other pan pizzas may all be described as thick, even though their dough structure and baking methods are quite different.

This guide approaches pizza styles through the dough and crust itself: how the dough is formulated, fermented, shaped and baked, and how those decisions create the characteristic texture of each style.

Neapolitan-style pizza showing a thin centre and inflated blistered crust
Neapolitan family A thin centre does not necessarily mean a flat or crisp crust
Think in crust characteristics. Thickness, openness, crispness and flexibility are usually more useful than the labels “thin crust” and “thick crust” alone.

What defines a pizza style?

A pizza style is the result of a system, not a single ingredient

Two pizza doughs can use the same flour and even the same hydration yet produce very different crusts if their dough-ball weight, fermentation, shaping method or baking conditions change.

Likewise, a high-hydration dough does not automatically make a pizza “Neapolitan,” and a thick pizza is not automatically “Sicilian.” The characteristic result comes from several variables working together.

The same basic ingredients can produce remarkably different pizza

Flour, water, salt and yeast form the foundation of most pizza dough, but the proportions and process around those ingredients determine whether the finished crust becomes soft, chewy, cracker-like, focaccia-like, airy or crisp.

01 · Hydration

How much water is used relative to the flour?

Firmer doughs are often easier to roll thin and bake crisp, while wetter doughs can support a more open, airy internal structure when the flour, fermentation and handling suit them.

02 · Dough quantity

How much dough is used for a given pizza size?

Dough-ball weight and pan area strongly influence physical crust thickness. A higher hydration does not necessarily mean a thicker pizza if very little dough is used.

03 · Fermentation

How long and under what conditions does the dough ferment?

Fermentation affects gas development, extensibility, flavour and handling. A short warm rise and a long refrigerated fermentation can create very different dough behaviour.

04 · Shaping

Is the dough stretched, rolled, pressed or proofed in a pan?

Hand stretching can preserve an inflated rim, rolling can suppress large bubbles for a thin crisp crust, and pan proofing encourages a different structure again.

05 · Oil and fat

Is fat included in the dough or around it during baking?

Oil can tenderise dough and influence browning. In pan styles, a generous layer of oil can also create a noticeably crisp or fried-style underside.

06 · Baking environment

How hot is the oven and what is the pizza baked on?

A very hot stone or oven floor produces a fundamentally different bake from a lower-temperature domestic oven or a heavy oiled pan. Bake time changes with it.

Most dough-driven pizza styles become easier to understand when grouped by their finished crust

These are intentionally broad families rather than rigid historical classifications. They provide a practical map before looking at individual styles in more detail.

Neapolitan pizza with a soft centre and large airy cornicione Family 01

Neapolitan family

Thin and soft through the centre with an inflated, airy rim

Neapolitan-style dough is typically hand stretched rather than rolled, leaving gas in the outer edge so the cornicione can expand dramatically during a very fast, high-temperature bake.

  • Hand stretched
  • Soft centre
  • Airy rim
  • Very hot bake
  • Little or no added fat
New York-style pizza showing a thin foldable crust with browned edges Family 02

New York family

Thin, chewy and crisp enough underneath to support a large slice

New York-style pizza stays relatively thin but is usually more structured than Neapolitan pizza. The crust balances flexibility, chew and base crispness, giving the familiar foldable slice.

  • Thin
  • Foldable
  • Chewy
  • Crisp base
  • Often contains oil
Very thin crisp pizza representing Roman tonda and cracker-style crusts Family 03

Roman and cracker-thin family

Very thin crusts where crispness matters more than a large airy rim

Roman tonda, Chicago tavern and generic cracker-style pizzas use different regional traditions, but all demonstrate how a dough can be shaped very thin and baked toward a dry, crisp or cracker-like result.

  • Very thin
  • Crisp
  • Often rolled
  • Small rim
  • Firm structure
Thick pan-baked pizza representing Detroit and Sicilian pizza styles Family 04

Detroit, Sicilian and pan family

Thick or moderately thick dough with an airy interior and crisp pan-baked base

These pizzas use the pan as part of the baking system. The dough often proofs in the pan, while oil beneath and around it promotes a crisp exterior. Detroit, Sicilian, Grandma and other pan styles still differ considerably in thickness and formulation.

  • Pan baked
  • Airy crumb
  • Crisp underside
  • Higher dough weight
  • Often higher hydration

Pizza styles sit on several different spectrums at once

There is no single line running from “thin pizza” to “thick pizza.” A style can be thin but soft, thin and cracker-crisp, thick and airy, or thick and rich. Thinking across several characteristics gives a much more useful description.

Very thin Very thick
Soft Crisp
Tight crumb Open / airy
Flexible Rigid

“Thick crust” is not one pizza style

Detroit, Sicilian, focaccia-style pizza, Grandma pizza and generic pan pizza can all use significantly more dough than a thin hand-stretched pizza. That does not make them interchangeable.

Detroit is known for an airy pan-baked structure and strongly crisped edges and underside. Sicilian is generally breadier and substantial. Grandma pizza tends to be thinner than classic Sicilian, while focaccia-style pizza pushes further toward an especially soft, aerated bread-like crumb.

Their differences become easier to understand once hydration, dough quantity, oil, fermentation and baking method are compared together rather than relying on thickness alone.

Stage 2 · Comparing the major pizza styles

Pizza styles differ in thickness, hydration, shaping and baking method — not just geography

A useful comparison looks beyond the name of the pizza and asks how the dough is actually handled. Some styles are stretched thin and baked directly on a hot surface, some are rolled until almost cracker-like, and others proof inside heavily oiled pans. Those structural choices explain much of the difference in the finished crust.

Soft + airy rim

Neapolitan

Thin centre, inflated cornicione and a fast bake at very high heat.

Thin + chewy

New York

Foldable slices with a crisp underside and enough structure to carry toppings.

Thin + crisp

Roman Tonda / Tavern

Rolled or stretched thin with little emphasis on a large inflated rim.

Thick + pan baked

Detroit / Sicilian

More dough, pan proofing and a thicker crumb with a crisp base.

Twelve pizza styles compared by the characteristics of the crust

These descriptions are intended as practical reference points rather than rigid specifications. Individual bakers, pizzerias and regional traditions can use different formulations while still producing a recognisable version of the style.

Style Shape / format Typical crust Hydration tendency Oil / fat Shaping Baking method Typical result
Neapolitan Round Thin centre / puffy rim Moderate to moderately high Usually little or none in the dough Hand stretched Very hot oven / hearth or stone Soft, tender centre with an airy blistered cornicione
New York Large round Thin / structured Moderate Often a small amount Hand stretched Hot deck, stone or steel Chewy, foldable slice with a crisp underside
Roman Tonda Round Extremely thin Lower to moderate Can include a little oil Stretched or rolled very thin Hot oven / direct surface Dry, crisp and delicate from centre to edge
Roman al Taglio Rectangular tray Thick / open High to very high Often some oil Gently spread into tray Tray baked Light, open crumb with a crisp exterior
Detroit Rectangular pan Thick / airy Moderately high to high Oil in dough and/or pan Pressed and proofed in pan Oiled metal pan Airy interior, crisp fried-style base and caramelised edges
Sicilian Rectangular tray Thick / bread-like Moderate to high Often some oil Spread and proofed in tray Tray baked Soft substantial crumb with a crisp base
Grandma Rectangular pan Moderately thin pan crust Moderate Usually oil in pan and dough Pressed into pan Oiled sheet pan Crisp underneath with less height than classic Sicilian
Chicago deep-dish Deep round pan Thick / rich Lower High fat content Pressed up pan sides Deep pan bake Substantial, rich and pie-like rather than airy
Chicago tavern Round, square cut Very thin / cracker crisp Lower Often moderate oil Usually rolled Hot oven / direct surface Flat, firm and notably crisp
Focaccia-style Tray Very thick / airy High to very high Generous oil Spread and proofed in tray Oiled tray Soft open crumb with a crisp, oily exterior
Thin / cracker crust Usually round Flat / very thin Lower Varies Frequently rolled Direct hot surface Dry, crunchy crust with minimal rim development
Generic pan pizza Round or rectangular Medium to thick Moderate to high Usually oil in the pan Proofed in pan Oiled pan Fluffy interior with a crisp, browned underside
Hydration alone does not define the style. A wet dough can become a thin pizza, a thick tray pizza or something closer to focaccia depending on dough quantity, fermentation, handling and the baking surface.

Similar-looking pizzas can come from very different dough systems

The most useful comparisons are often between styles that appear superficially similar but behave differently during shaping and baking.

Neapolitan vs New York

Both are thin, but they aim for different structure

Neapolitan pizza prioritises tenderness and rapid expansion around the rim. New York pizza generally needs more strength through the base so a large slice can remain foldable without becoming floppy.

  • Neapolitan: softer centre and more inflated rim
  • New York: firmer base and stronger chew
  • New York dough often includes some oil
  • Neapolitan usually relies on a much hotter, shorter bake
Roman Tonda vs Roman al Taglio

One name can describe two almost opposite crust structures

Roman tonda is characteristically thin and crisp, while Roman al taglio is a high-hydration tray pizza designed for a much more open, airy internal structure.

  • Tonda: thin, dry and crisp
  • Al taglio: thicker, wetter and highly aerated
  • Tonda is shaped thin before baking
  • Al taglio is handled gently in a tray
Detroit vs Sicilian

Both are thick pan pizzas, but the finish is not the same

Detroit pizza usually emphasises a lighter airy crumb, heavily crisped underside and distinctive edge caramelisation. Sicilian pizza tends toward a broader bread-like structure, although there is considerable variation.

  • Both use a pan as part of the cooking system
  • Detroit often pushes crispness and edge frying harder
  • Sicilian can feel softer and more bread-like
  • Dough depth and pan geometry influence the result
Deep-dish vs thick pan pizza

Deep-dish is not simply an extra-thick airy pizza

Chicago deep-dish uses a richer dough pressed into a deep pan and behaves more like a structural shell for a substantial filling. Detroit and Sicilian pizzas depend more on fermented dough volume and open crumb development.

  • Deep-dish dough is richer and generally lower in hydration
  • The dough is shaped up the sides of the pan
  • The finished crust is substantial rather than focaccia-like
  • Its thickness comes from construction as well as dough quantity

The key distinction

“Thin,” “thick,” “crispy” and “airy” describe dimensions of a crust — not complete pizza styles

It is tempting to sort pizza into a simple thin-crust versus thick-crust split, but that hides most of the useful information. A Roman tonda and a New York slice can both be thin while differing greatly in flexibility and crumb. Detroit and focaccia-style pizza can both be thick while differing in fat level, pan treatment and edge structure.

A more informative description combines several traits at once: thickness, internal openness, crispness, flexibility, shaping method and baking environment.

Thickness How much dough occupies a given pizza area.
Structure Whether the crumb is tight, chewy, open, airy or bread-like.
Surface texture Whether the exterior stays soft, becomes crisp or effectively fries against a pan.

Each pizza has its own balance of thickness, crispness and internal openness

These bars are qualitative rather than laboratory measurements. Their purpose is to show why two styles can share one characteristic while still feeling completely different to eat.

Neapolitan

Thin through the centre with strong rim expansion and relatively low crispness.

Thickness
Crispness
Airiness

New York

Thin but more structurally firm, balancing chew with base crispness.

Thickness
Crispness
Airiness

Roman Tonda

Very thin and strongly crisp, with little need for an open airy crumb.

Thickness
Crispness
Airiness

Roman al Taglio

Considerably thicker than tonda, with high internal openness and a crisp shell.

Thickness
Crispness
Airiness

Detroit

Thick, highly aerated and strongly crisp where the dough meets the oiled pan.

Thickness
Crispness
Airiness

Chicago deep-dish

Thick and substantial, but not intended to mimic the open crumb of a highly hydrated pan dough.

Thickness
Crispness
Airiness

Pizza style names describe traditions, not one immutable formula

A useful recipe can sit comfortably inside a recognised style without matching one exact hydration percentage, fermentation time or flour choice. Bakers adapt formulas around flour strength, ambient temperature, oven capability and the result they want.

For that reason, later sections of this guide use representative ranges rather than presenting a single number as the only correct specification for a style.

The more useful question is whether the formulation and process work together to create the expected crust: soft or crisp, thin or thick, tightly structured or highly aerated.

Pizza formulation tool

Build the dough around the pizza style you want

The Pizza Dough Calculator helps translate a pizza style into practical ingredient quantities. Use it to calculate dough for your chosen pizza size and batch, while controlling key formulation variables such as hydration, salt, yeast, oil and individual dough-ball weight.

It is especially useful when moving between styles. A thin New York-style pizza, a soft Neapolitan dough and a thicker Detroit-style pan pizza may use different hydration levels, dough quantities and enrichment even when they begin with the same basic ingredients.

  • Dough-ball weight
  • Hydration
  • Salt
  • Yeast
  • Oil
  • Batch scaling
Open Pizza Dough Calculator

Calculate a dough formula for the pizza size and style you want to make.

Stage 3 · The dough formulas behind pizza styles

Baker’s percentages reveal how pizza styles differ before the dough even reaches the oven

Once pizza styles are compared by their crust, the next step is to look inside the dough itself. Hydration, salt, oil, yeast and fermentation can all be expressed relative to flour weight, making very different formulations easier to compare on the same scale.

Baker’s percentages make recipes comparable at any batch size

A pizza recipe written only in grams tells you what to weigh for one batch. Baker’s percentages tell you how the dough is structured. That means a 500 g flour batch and a 5 kg flour batch can be compared directly if their percentages are the same.

Example: 630 g water with 1,000 g flour is 63% hydration. With 500 g flour, the same 63% hydration would use 315 g water.

Hydration describes water relative to flour — not how thick the pizza will be

Hydration is one of the most discussed pizza variables because it affects dough consistency, extensibility and the potential for an open internal crumb. But it does not directly tell you whether the pizza will be thin or thick.

A very wet dough can still be spread thin, while a lower-hydration dough can become thick if a large amount of dough is packed into a small pan.

Oil changes texture and becomes especially important in pan styles

Added oil can make dough more tender, assist browning and alter how the crust crisps. In Detroit, Sicilian, Grandma and focaccia-style pizzas, oil around the dough can also affect the way the base and edges fry against the pan.

Neapolitan dough is commonly formulated with little or no oil, whereas New York and pan-style doughs often use it deliberately.

Yeast percentage only makes sense alongside fermentation time and temperature

A dough fermented for a few hours may require a very different yeast quantity from one fermented for a day or more. The warmer the dough and the longer the fermentation, the more carefully yeast quantity needs to be controlled.

Important: yeast percentages shown later are representative rather than prescriptions. Fermentation schedule, dough temperature and yeast type all matter.

Salt is not merely seasoning

Salt contributes flavour, but it also changes dough handling and fermentation behaviour. Pizza formulas often sit within a fairly narrow salt range compared with hydration or oil, yet even small changes can affect the finished dough.

Salt should therefore be treated as part of the formulation rather than added casually after the main dough ratios have been decided.

The formula and the process must be designed together

A 75% hydration dough is not inherently better than a 60% dough. The useful question is whether the flour strength, fermentation, shaping method, baking temperature and intended style can support that hydration level.

Pizza formulation works best as a system: ingredients + fermentation + shaping + baking method.

Different pizza styles tend to occupy different formulation ranges

These figures are useful orientation points, not universal standards. Pizzerias and home bakers adapt formulas around flour strength, oven capability, climate, fermentation schedule and the exact texture they want to achieve.

Style Typical flour Hydration Salt Oil / fat Illustrative IDY* Fermentation tendency Formulation character
Neapolitan Tipo 00 / suitable pizza flour 60–65% About 2.5–3% Usually 0% About 0.05–0.2% Medium to long Lean dough designed for extensibility and rapid high-heat baking
New York Strong / bread flour 60–65% About 2–3% Often 1–3% About 0.1–0.5% Often long cold fermentation Balanced strength, chew and crispness
Roman Tonda 00 or strong flour 55–60% About 2–3% Often 0–2% About 0.1–0.5% Medium to long Firm enough to shape extremely thin and bake crisp
Roman al Taglio Strong 00 / bread flour 70–85% About 2–3% Often 1–3% About 0.1–0.5% Often long High hydration aimed at an open, light tray-baked crumb
Detroit Bread / strong flour 68–75% About 2–3% Often 2–4% plus pan oil About 0.3–1% Medium to long Wet, extensible dough built for pan proofing and strong oven spring
Sicilian Bread / strong flour 65–75% About 2–3% Often 2–5% plus pan oil About 0.3–1% Medium Thicker, softer and more bread-like than thin stretched pizza
Grandma Bread or all-purpose flour 60–70% About 2–3% Often 2–5% plus pan oil About 0.3–1% Short to medium Moderately hydrated pan dough intended to stay thinner than Sicilian
Chicago deep-dish All-purpose / bread flour 45–55% About 1.5–2.5% Often 10–20% fat About 0.5–1% Short to medium Rich, structured dough rather than a highly aerated pizza bread
Chicago tavern All-purpose flour 45–55% About 1.5–2.5% Often 5–10% 0–0.5% Short to long depending on method Firm dough designed for rolling and cracker-like crispness
Focaccia-style Strong / bread flour 70–85% About 2–3% Often 3–8% plus generous pan oil About 0.3–1% Medium to long Very wet, oily dough designed for a soft, open crumb

*Yeast note: the figures above are only illustrative instant dry yeast percentages. Yeast quantity should be calculated around the actual fermentation time, dough temperature and environment, rather than copied independently from a style table.

Hydration changes dough behaviour progressively rather than creating fixed categories

These ranges are best understood as a continuum. Flour absorption, mixing, fermentation and handling technique can make two doughs at the same hydration behave quite differently.

50–55%

Firm and controlled

Relatively stiff dough that can suit rolled, cracker-style or richer low-hydration formulations.

60–65%

Classic pizza territory

A widely useful range for hand-stretched pizza, balancing handling, extensibility and structure.

70–75%

Wet and airy

Increasingly sticky dough with greater potential for a light, open crumb, especially in pan and tray styles.

80%+

Highly hydrated

Very wet dough that generally needs suitable flour, gentle handling and a process designed around high hydration.

Starting with the same flour weight makes the differences easy to see

Suppose four doughs each start with 1,000 g of flour. The flour stays fixed at 100%, while water, oil and yeast change according to the intended style. These are educational example formulas rather than canonical recipes.

Neapolitan

Flour
1,000 g
Water
630 g
Hydration
63%
Salt
28 g
Oil
IDY*
~1 g

New York

Flour
1,000 g
Water
630 g
Hydration
63%
Salt
25 g
Oil
20 g
IDY*
~2 g

Detroit

Flour
1,000 g
Water
720 g
Hydration
72%
Salt
25 g
Oil
30 g
IDY*
~3 g

Roman al Taglio

Flour
1,000 g
Water
800 g
Hydration
80%
Salt
25 g
Oil
20 g
IDY*
~2 g

Do not read the yeast figures as fixed recipes. They are deliberately illustrative. A serious formulation should set yeast quantity around the actual fermentation schedule, dough temperature and yeast type.

The recipe numbers are only one layer of the finished pizza

Two formulas can look nearly identical on paper and still bake very differently when the dough weight, shaping method or oven changes.

Dough-ball weight

A larger dough ball spread over the same pizza diameter creates a thicker crust. This is why dough weight relative to pizza area is central to a useful thickness-factor calculation.

Fermentation schedule

The same hydration and ingredient ratios can behave differently after a short warm rise versus a long refrigerated fermentation.

Oven capability

Dough intended for a very short high-temperature bake may need a different formulation or baking strategy when adapted to a domestic oven with a much lower maximum temperature.

The formulation principle

A pizza style is not a hydration number

Hydration is important, but it becomes meaningful only when paired with the rest of the system. Flour strength, dough quantity, fermentation, oil, shaping and oven temperature all influence whether the dough becomes a soft Neapolitan crust, a foldable New York slice, a crisp Roman base or an airy Detroit-style pan pizza.

That is also why a useful pizza dough calculator should do more than multiply a single recipe. It should allow the baker to control hydration, salt, yeast, oil, dough-ball weight and the intended pizza style together.

Formula defines the dough → process develops it → shaping distributes it → the oven finishes the style

Pizza formulation tool

Build the dough around the pizza style you want

The Pizza Dough Calculator helps translate a pizza style into practical ingredient quantities. Use it to calculate dough for your chosen pizza size and batch, while controlling key formulation variables such as hydration, salt, yeast, oil and individual dough-ball weight.

It is especially useful when moving between styles. A thin New York-style pizza, a soft Neapolitan dough and a thicker Detroit-style pan pizza may use different hydration levels, dough quantities and enrichment even when they begin with the same basic ingredients.

  • Dough-ball weight
  • Hydration
  • Salt
  • Yeast
  • Oil
  • Batch scaling
Open Pizza Dough Calculator

Calculate a dough formula for the pizza size and style you want to make.

Stage 4 · Detailed pizza style profiles

The identity of a pizza style emerges from how its dough is fermented, shaped and baked

Formulation explains what is in the dough. Style becomes visible when that dough is given a particular thickness, fermentation schedule, shaping method, baking surface and oven environment. Looking at those variables together makes the differences between Neapolitan, New York, Roman and pan pizzas much clearer.

Similar ingredients can lead to completely different pizzas

Flour, water, salt and yeast appear across many pizza traditions. What changes is the system around them. A dough may be stretched by hand and baked directly on a very hot floor, rolled exceptionally thin for crispness, or proofed in an oiled pan so the base fries as the crumb rises.

The profiles below therefore focus on four things: dough character, shaping, baking environment and finished texture. The stated hydration and temperature ranges should be read as representative rather than mandatory specifications.

Seven profiles explain how the best-known crust systems differ

Some names describe tightly defined traditions, while others cover a broader family of regional and modern interpretations. The goal here is to understand the characteristic dough logic behind each one.

Profile 01

Neapolitan

Soft thin centre, inflated cornicione and a very short high-temperature bake

Neapolitan pizza is built around extensibility and rapid oven expansion. The centre is opened thin by hand while the outer edge is handled gently so accumulated fermentation gases remain in the rim. In the oven, that rim expands dramatically into the characteristic cornicione.

The dough is generally lean, without relying on significant added fat for tenderness. Much of the final texture comes from the combination of fermentation and an exceptionally fast bake.

Hydration Often around 60–65%
Shaping Hand stretched
Baking surface Hot hearth / stone
Texture Soft centre, airy rim
What makes it distinct: the centre and rim are intentionally treated differently. The centre is opened thin, while the rim preserves enough gas to expand rapidly under extreme heat.
Profile 02

New York

Thin and foldable, but stronger and crisper than a soft Neapolitan centre

New York pizza has to balance contradictory qualities. The slice should stay thin enough to fold, yet strong enough to support sauce, cheese and toppings. It is generally chewier and firmer underneath than Neapolitan pizza.

Strong flour, cold fermentation and a small addition of oil are common tools for creating that balance. The longer bake used in comparison with very-high-temperature Neapolitan pizza also encourages more extensive base crisping and browning.

Hydration Often around 60–65%
Fermentation Frequently cold / extended
Fat Often a little oil
Texture Chewy, crisp, foldable
What makes it distinct: New York-style pizza is still thin pizza, but the crust has more structural strength than a very soft high-heat Neapolitan base.
Profile 03

Roman

One regional label can describe both exceptionally thin pizza and highly aerated tray pizza

Roman pizza is particularly useful for showing why a regional name does not always correspond to one crust structure. Roman tonda and pizza al taglio sit at very different points on the thickness and hydration spectrum.

Roman Tonda

A round pizza opened extremely thin, often with a relatively firm dough and little emphasis on a large puffy rim. The goal is a crisp, delicate crust from edge to edge.

Roman al Taglio

A rectangular tray pizza commonly associated with much higher hydration and a highly open internal structure. It is airy inside while remaining crisp externally.

Tonda hydration Often around 55–60%
Al taglio hydration Often 70–85%
Tonda texture Thin and crisp
Al taglio texture Open, airy and crisp
What makes the comparison useful: Roman tonda and al taglio demonstrate that geography alone does not tell you hydration, thickness or crumb structure.
Profile 04

Detroit

High-hydration pan pizza with an airy crumb and a strongly crisped exterior

Detroit-style pizza uses the pan as an active part of the crust design. The dough is relatively wet and is gently spread into a rectangular pan where it can proof before baking. Oil beneath the dough helps the bottom become notably crisp.

The characteristic edge is also part of the style. Cheese is commonly taken to the perimeter of the pan, where it can brown and caramelise against the metal while the interior dough remains light and aerated.

Hydration Often around 68–75%
Shaping Spread / proofed in pan
Baking surface Oiled metal pan
Texture Airy with crisp fried-style base
What makes it distinct: the pan is not merely a container. Its oil and metal surface help create the crust’s unusually crisp base and edge structure.
Profile 05

Sicilian & Grandma

Related pan traditions where dough depth and proofing produce noticeably different results

Sicilian-style pizza is generally associated with a substantial, bread-like tray crust. The dough proofs with meaningful depth, creating a soft interior while the pan and oil help brown the underside.

Grandma pizza also uses a rectangular oiled pan but is usually thinner and less bread-like. It occupies useful middle ground between a thin New York-style pizza and a taller Sicilian pan crust.

Sicilian

Higher dough quantity, deeper crumb and a softer, more bread-like internal structure.

Grandma

Shallower pan dough with a crisp underside and less overall height than a classic thick Sicilian-style crust.

Sicilian hydration Often 65–75%
Grandma hydration Often 60–70%
Pan role Proofing + crisp base
Main distinction Dough depth
What makes the distinction useful: both can be called rectangular pan pizza, but the amount of dough used over the pan area changes the finished crust significantly.
Profile 06

Chicago

Deep-dish and tavern pizza show two almost opposite sides of the same city’s pizza identity

“Chicago-style pizza” is not one dough type. Deep-dish is thick, rich and constructed inside a deep pan, while tavern-style pizza is rolled exceptionally thin and baked toward a firm, cracker-like result.

Chicago deep-dish

Richer dough with comparatively low hydration and substantial fat, pressed across the base and up the sides of a deep pan.

Chicago tavern

Thin rolled dough with low hydration and a crisp, almost cracker-like bite, commonly cut into squares.

Deep-dish Thick, rich, pan formed
Tavern Very thin and crisp
Hydration tendency Generally lower
Shared trait Regional identity, not crust structure
What makes the comparison useful: city names are cultural labels. They do not always tell you whether the dough will be thin, thick, wet, dry, airy or crisp.
Profile 07

Focaccia-style & pan pizza

High hydration, generous oil and pan proofing move pizza toward a soft bread-like crumb

Focaccia-style pizza pushes the pan-pizza family toward high hydration, generous oil and substantial internal aeration. The dough is handled gently and allowed to expand in the tray rather than being stretched thin across a stone.

Generic pan pizza occupies a broader category and may be less hydrated or less oily, but the defining principle remains similar: the dough proofs in the vessel in which it will bake, giving the pan a direct role in thickness and crust formation.

Hydration Often high
Oil Moderate to generous
Shaping Spread gently in tray
Texture Soft, open and crisp outside
What makes it distinct: rather than creating a separate thin base and puffy rim, the entire dough mass becomes part of an aerated bread-like structure.

In pan pizza, the baking vessel becomes part of the formulation

A stone or steel mainly provides a hot contact surface. A pan affects the geometry of the dough, contains oil, limits spreading and creates a specific environment around the base and edges.

Dough depth

A pan fixes the available area, so the total dough weight largely determines thickness. More dough in the same pan creates a deeper crust.

Proofing in place

Detroit, Sicilian and focaccia-style doughs can complete part of their fermentation inside the pan, allowing gas cells to expand without the dough being stretched thin again.

Oil at the interface

Oil between dough and pan changes heat transfer and helps create the characteristic crisp, browned or almost fried underside associated with many pan styles.

Different crust systems need very different combinations of heat and time

Oven temperature cannot be separated from style. A dough designed for an extremely fast bake behaves differently from one intended to remain in a domestic oven long enough for a thick centre to cook through.

Style Representative oven range Typical baking surface Bake character What the heat is trying to achieve
Neapolitan Very high heat, often around 430–485°C in dedicated ovens Hearth / stone floor Extremely short Rapid rim expansion and blistering before the centre dries
New York High heat, often lower than Neapolitan Deck, stone or steel Longer than Neapolitan Develop a crisp underside while retaining chew and flexibility
Roman Tonda High Direct hot surface Thin, drying bake Drive moisture from an exceptionally thin base for crispness
Roman al Taglio Moderate to high Tray Long enough for thick open crumb Set an airy interior while crisping the external surfaces
Detroit Moderate to high, commonly compatible with domestic ovens Heavy oiled pan Pan bake Cook through a thicker crumb while strongly browning base and edges
Sicilian / Grandma Moderate to high Rectangular pan Pan bake Set the interior without over-browning before the centre is baked
Chicago deep-dish Moderate Deep pan Relatively long Cook a substantial filled pizza through without relying on rapid oven spring
Chicago tavern Moderate to high Direct surface / pan depending method Dry, crisp bake Produce a rigid, cracker-like crust rather than a soft airy crumb
Domestic oven note: a lower maximum oven temperature does not simply make every style take longer. Dough formulated for a 60–90 second high-temperature bake may need different browning, hydration or enrichment considerations when it has to remain in the oven for several minutes instead.

Why style comparisons matter

The same hydration can belong to different pizzas because process changes what the dough becomes

Neapolitan and New York dough can occupy similar hydration ranges, yet one prioritises a soft centre and explosive rim expansion while the other aims for a stronger, chewier slice with more base crispness.

Likewise, Detroit and Sicilian can both be relatively wet pan doughs, but dough depth, oil, pan geometry and edge treatment produce recognisably different crusts.

Formula Sets hydration, salt, fat and fermentation potential.
Dough quantity Determines how much material occupies the pizza or pan area.
Shaping Preserves, redistributes or removes gas from different parts of the dough.
Oven Determines how quickly the crust sets, browns, expands and loses moisture.

Choose the crust you want first, then build the formula and process around it

Pizza formulation becomes easier when style is treated as a target texture rather than a label attached at the end. Decide whether the goal is soft and blistered, thin and chewy, cracker-crisp, or thick and airy. Hydration, dough weight, fermentation, shaping, oil and oven temperature can then be chosen to support that result.

Desired crust → dough formulation → fermentation → shaping → baking method

Stage 5 · How formulation changes pizza texture

Hydration matters, but dough weight, fermentation, oil and oven heat determine what that hydration becomes

Pizza dough is a system of interacting variables. Changing one number rarely changes only one thing. More water can increase openness but also change handling. More oil can tenderise the crumb while increasing base crispness in a pan. A heavier dough ball can create a substantially thicker crust without changing the hydration at all.

Hydration changes dough consistency and the potential for an open crumb

Hydration measures water as a percentage of flour weight. Increasing it generally makes dough softer and more extensible, but it can also make the dough stickier and more demanding to handle. When flour, fermentation and shaping support it, higher hydration can contribute to a lighter, more open internal structure.

Lower hydration Firmer handling, tighter structure and easier rolling
Higher hydration Softer dough with more potential for openness and expansion
Do not equate wet dough with thick pizza. Hydration influences dough behaviour. Thickness depends much more directly on how much dough is used over a given area.

Dough-ball weight controls crust thickness more directly than hydration does

If two round pizzas are stretched to the same diameter, the one made from the heavier dough ball contains more dough per unit of area and will generally be thicker. The same principle applies to rectangular pan pizzas: more dough in the same pan produces greater depth.

Less dough / same area Thinner crust with less internal depth
More dough / same area Thicker crust with more room for internal crumb
This relationship is the basis of a useful pizza thickness-factor or dough-weight calculator: dough quantity is related to the area of the pizza or pan rather than chosen independently.

Fermentation changes both flavour and the physical behaviour of the dough

Fermentation produces gas, develops flavour and changes the way the dough stretches. Time, temperature and yeast quantity all interact, which is why fermentation cannot be reduced to a simple rule such as “longer is always better.”

Shorter fermentation Requires a process designed for faster gas development
Longer fermentation Usually requires tighter yeast control and suitable dough strength
A long refrigerated fermentation and a short warm fermentation can use the same hydration while producing noticeably different handling and flavour.

Oil changes tenderness, browning and the way pan crusts crisp

Oil inside the dough can soften the crumb and influence browning. Oil outside the dough — particularly between dough and pan — can affect heat transfer and create the strongly crisped underside associated with Detroit, Sicilian and other pan pizzas.

Lean dough Relies more heavily on fermentation and oven heat for texture
Enriched / oiled dough Can become more tender, browned and crisp at the surface
Oil has different jobs in different styles. A little oil in a New York-style dough is not equivalent to the generous pan oil used to create the underside of a Detroit-style pizza.

Flour strength sets practical limits on hydration and fermentation

Flour has to create enough structure to hold the gas generated during fermentation and survive shaping. A dough with very high hydration or a long fermentation schedule often benefits from flour suited to those demands.

Insufficient structure Dough can weaken, spread or become difficult to handle
Suitable structure Dough can retain gas while remaining extensible enough to shape
Higher protein is not automatically better. Flour should suit the intended hydration, fermentation and texture, rather than simply being the strongest available.

Oven temperature determines how quickly the dough expands, sets and loses moisture

A very hot oven can expand and brown a thin pizza rapidly before much moisture escapes from the centre. A lower-temperature oven requires a longer bake, giving the crust more time to dry and making formulation choices such as oil and browning potential more important.

Very hot / short bake Rapid expansion, blistering and greater moisture retention
Lower / longer bake More drying, more time for structural setting and base crisping
This is why a formula designed around an extreme-temperature pizza oven cannot always be transferred unchanged to a domestic oven.

Pizza thickness begins with dough quantity relative to surface area

Dough-ball weight becomes much more useful when it is related to pizza size. A 250 g dough ball can be relatively thick on a small pizza and relatively thin on a much larger one.

Conceptual relationship Thickness factor = dough weight ÷ pizza area

For a round pizza, area increases with the square of the radius. That means increasing diameter requires considerably more dough if the same crust thickness is to be preserved.

This matters when scaling a pizza from, for example, 10 inches to 14 inches. Simply adding a small amount of extra dough will not keep the same thickness because the larger pizza covers much more area.

Hydration and thickness factor solve different problems. Hydration tells you how wet the dough is. Thickness factor tells you how much dough is distributed across the baking area.

Thin round pizza Lower dough weight per unit of area

Useful for styles such as Roman tonda or other thin, crisp pizzas.

Classic stretched pizza Moderate dough weight per unit of area

Enough dough to create a rim while maintaining a relatively thin centre.

Pan pizza Higher dough weight per unit of pan area

Creates the depth needed for an airy internal crumb.

Each formulation change pushes the crust in a different direction

These are broad tendencies rather than guaranteed outcomes. Their value is in showing why pizza dough is easier to control when adjustments are made deliberately instead of changing several variables at once.

Variable If increased Possible benefit Possible trade-off Especially relevant to
Hydration Softer, wetter dough More openness and extensibility potential Stickier handling and greater dependence on flour / technique Roman al taglio, Detroit, focaccia-style
Dough-ball weight More dough over the same area Greater crust thickness and internal volume Longer bake and risk of undercooked centre if pushed too far Pan pizza, Sicilian, Detroit
Oil in dough Richer formulation Tenderness and browning Can move texture away from a lean, high-heat pizza profile New York, Grandma, pan styles
Pan oil More oil at dough / metal interface Stronger base crisping and fried character Heavier, richer exterior Detroit, Sicilian, focaccia-style
Fermentation time More time for dough development Potentially greater flavour and extensibility Requires lower yeast and control of dough strength / temperature New York, Neapolitan, Roman styles
Oven temperature Faster heat transfer Quicker expansion and shorter bake Can burn toppings or exterior if dough and style are not suited Especially important to Neapolitan and thin styles
Flour strength Greater structural potential Can support longer fermentation or wetter dough Excessively strong flour can produce unwanted toughness High-hydration and long-fermented doughs

A dedicated pizza oven and a domestic oven reward different dough choices

Style should be adapted to the available heat rather than forcing an oven to imitate conditions it cannot produce.

High-temperature pizza oven

Very fast baking favours doughs designed for rapid expansion

Neapolitan-style pizza is the clearest example. Extreme heat can inflate and char the rim while the centre remains soft because the pizza spends relatively little time drying in the oven.

This environment also changes how quickly sugars and fats brown, which is one reason very-high-temperature formulas are commonly kept lean.

Domestic oven

Longer baking places more emphasis on browning and moisture management

New York, Detroit, Sicilian, Grandma and many pan pizzas adapt well to domestic ovens because their crust systems can benefit from the longer bake and strong contact heat from a steel or pan.

A domestic-oven version of another style may still be excellent, but it should be understood as an adaptation rather than an exact recreation of a bake performed hundreds of degrees hotter.

If you want to change your pizza, adjust the variable that actually controls the result

This is a better approach than increasing hydration simply because a crust feels too dense or adding yeast simply because a dough did not rise enough.

Want a thinner pizza?

Reduce dough quantity for the same diameter or pan size

Thickness factor is the first variable to examine rather than hydration.

Want a more open crumb?

Review hydration, fermentation, flour and handling together

More water alone cannot compensate for weak structure or aggressive degassing.

Want more base crispness?

Look at heat transfer, baking surface and oil

A hotter steel or oiled metal pan may matter more than changing yeast.

Want more chew?

Consider flour choice, fermentation and final bake

Dough strength and moisture loss both contribute to the eating texture.

Want a softer crust?

Reduce excessive drying and review enrichment

Bake duration, oil and dough thickness can all affect tenderness.

Want stronger fermentation?

Control time, temperature and yeast as one system

Simply adding more yeast is not the only—or usually the most controlled—solution.

The dough design principle

Build backward from the crust you want

A useful pizza dough calculator should not begin with a generic recipe and simply multiply it. The better starting point is the intended pizza: its diameter or pan area, desired thickness, hydration, fermentation schedule, oil level and oven environment.

From there, dough-ball weight and baker’s percentages can be calculated to support the result. That makes the calculator a formulation tool, rather than merely a batch-size converter.

Choose the crust → set the size and thickness → choose hydration → define fermentation → add style-specific oil and salt → formulate the dough