 5 Pizza Dough Mistakes That Can Ruin Your Results
Making good pizza dough is not simply a matter of following a recipe. Flour strength, temperature, yeast, hydration and fermentation time all interact with one another. Small errors in any of these areas can completely change the final dough. Understanding these relationships is what allows you to move from simply following recipes to actually controlling your dough. 1. Ignoring Dough Temperature Temperature is one of the most important variables in pizza dough fermentation. Yeast activity changes significantly as temperature changes. A dough fermenting at 18°C will behave very differently from the same dough at 24°C, even if the recipe, yeast quantity and fermentation time remain identical. For this reason, professional dough management should always consider the final dough temperature after mixing. Water temperature, flour temperature, room temperature and the heat generated during mixing all influence the final result. Instead of relying only on fermentation time, learn to control temperature as part of the process. For more accurate dough planning, use the Professional Pizza Dough Calculator. 2. Using Too Much Yeast More yeast does not automatically produce better dough. Increasing the yeast quantity simply accelerates fermentation. If the amount of yeast is too high for the temperature and fermentation time, the dough can develop too quickly and lose stability before you are ready to bake. Yeast quantity should always be considered together with fermentation time, dough temperature, room or refrigerator temperature and flour characteristics. Long fermentation generally requires precise yeast management rather than simply using more yeast. The objective is not maximum fermentation speed. The objective is controlled fermentation. 3. Choosing Hydration Without Considering the Flour High hydration has become extremely popular in modern pizza making, but more water does not automatically mean better pizza. Every flour has a different capacity to absorb and retain water. Protein quantity, gluten quality, milling characteristics and flour strength all influence how much hydration a dough can successfully support. A flour that performs well at 60% hydration may become difficult to manage at 75%. Excessive hydration can produce weak dough structure, excessive stickiness, difficult balling, poor handling and loss of shape during fermentation. Hydration should therefore be selected according to the flour, fermentation method and desired pizza style—not according to a percentage seen on social media. You can calculate hydration, ingredient quantities and dough-ball weights with the Professional Pizza Dough Calculator. 4. Confusing Fermentation With Maturation Fermentation and dough maturation happen simultaneously, but they describe different processes. Fermentation is primarily connected to yeast activity. Yeast metabolises available sugars, producing carbon dioxide and other compounds that influence volume, aroma and flavour. What is commonly called maturation involves the continued biochemical development of the dough, including enzymatic activity affecting proteins and starches. Simply extending fermentation time does not automatically improve the dough. Time must remain compatible with flour characteristics, yeast quantity, temperature, hydration and storage conditions. A dough can therefore be fermented for a long period without necessarily being well balanced. Understanding the difference gives you much greater control over dough development. For a deeper technical explanation of flour, fermentation, hydration and dough management, see the Professional Pizza Technical Manual. 5. Following Time Without Watching the Dough “24-hour dough.” “48-hour fermentation.” “72-hour pizza dough.” These numbers are often used as if time alone determined quality. It does not. A 48-hour fermentation at one temperature can produce a completely different result from 48 hours at another temperature. The dough must always be evaluated according to its actual development. Look at volume increase, gas retention, dough strength, elasticity, extensibility, surface condition and temperature. The clock is a reference. The dough itself tells you when it is ready. This is one of the most important principles in professional pizza making. Better Pizza Starts With Understanding the Dough Consistent pizza does not come from memorising one perfect recipe. It comes from understanding how flour, water, yeast, temperature and time work together. Control these variables and you gain much greater control over fermentation, handling and the final bake. Use the Professional Pizza Dough Calculator to calculate and plan your dough, and explore the Professional Pizza Technical Manual for a deeper technical approach to professional pizza making. © 2026 Vincicoppolas. All rights reserved  Biga in Pizza Dough: Fermentation, Structure and Professional Use
Biga is one of the most widely used Italian preferments in professional pizza making. When managed correctly, it can improve dough structure, aroma, extensibility and fermentation performance. Unlike a liquid preferment such as poolish, biga is prepared with relatively low hydration. This creates a firm and irregular dough that ferments slowly before being incorporated into the final dough. For a deeper understanding of preferments, fermentation and professional dough production, visit the Professional Pizza Technical Manual. WHAT IS BIGA ? Traditional biga is made with three basic ingredients: Flour • Water • Yeast Hydration is generally around 44–50%, although the exact percentage depends on the flour, fermentation time, temperature and production method. Only a small quantity of yeast is normally required because biga is fermented for many hours. The purpose of the preferment is not simply to make the dough rise. It creates controlled fermentation and enzymatic activity before the final mixing stage. WHY USE BIGA IN PIZZA DOUGH ? When correctly managed, biga can contribute to: • More complex aroma and flavour • Improved dough structure • Better gas retention • Good extensibility • A lighter internal crumb • More pronounced fermentation characteristics • Improved baking performance These benefits depend on correct management of temperature, hydration and fermentation. Biga is not automatically better than direct dough. It is simply a different fermentation method that gives the pizza maker greater control over the final dough. HYDRATION AND MIXING Biga should not be mixed like a finished pizza dough. The purpose of the first mixing stage is to distribute the water and yeast through the flour without fully developing the gluten. Start by dispersing the yeast in the measured water. Add the water gradually to the flour while mixing at low speed. Mix only until the flour has absorbed the water sufficiently and the characteristic fragmented structure begins to form. The finished biga should be: • Firm • Coarse • Irregular • Fragmented • Relatively dry It should not become a smooth or elastic dough ball. There should be no large quantities of completely dry flour, but the gluten should remain only partially developed. With a spiral mixer, use low speed and stop mixing once the mixture forms irregular pieces of dough. The exact mixing time depends on the mixer, batch size, flour and hydration. For this reason, visual and physical assessment is more important than following a fixed number of minutes. Overmixing should be avoided. If the biga becomes smooth, elastic and strongly developed, too much gluten development has already taken place. Undermixing should also be avoided because large areas of dry flour indicate poor water distribution. The correct result is: Hydrated enough to ferment evenly, but mixed only enough to remain coarse, firm and irregular. FERMENTATION TEMPERATURE Temperature is one of the most important variables when working with biga. If the temperature is too high, fermentation can progress too quickly. If it is too low, fermentation may develop too slowly. The pizza maker must consider: Flour temperature + Water temperature + Room temperature + Fermentation time These factors work together and determine the final condition of the biga. The objective is controlled fermentation, not maximum fermentation. HOW LONG SHOULD BIGA FERMENT ? There is no single fermentation time suitable for every biga. The correct duration depends on: • Yeast quantity • Flour strength • Hydration • Ambient temperature • Refrigeration • Percentage of biga used A commonly used professional method is approximately 16–20 hours of fermentation. However, this should not be treated as a fixed rule. The condition of the preferment is more important than the number of hours alone. RECOGNISING A PROPERLY FERMENTED BIGA A mature biga should develop a clear fermented aroma and an open internal structure while maintaining its characteristic firmness. It should not become excessively wet, collapsed or strongly acidic. An over-fermented biga can weaken the final dough. An under-fermented biga may not provide the expected aromatic and structural benefits. PERCENTAGE OF BIGA IN THE FINAL DOUGH Biga can represent different percentages of the total flour. For example: 30% Biga 50% Biga 70% Biga 100% Biga Increasing the percentage changes the behaviour of the dough and requires adjustments to hydration, mixing, fermentation and temperature management. To calculate flour, water, hydration, salt, yeast and dough quantities accurately, use the Vincicoppolas Dough Calculator. FINAL DOUGH MIXING During the final mixing stage, the mature biga is combined with the remaining ingredients to create the finished dough. Unlike the first mixing stage, the objective now is to develop the required gluten structure. Break the mature biga into smaller pieces to help it incorporate evenly. Add the remaining water progressively, especially when working with higher final hydration. The final hydration must always be calculated using the total flour and total water in the complete recipe, including the flour and water already contained in the biga. You can calculate these quantities with the Vincicoppolas Dough Calculator. BIGA AND FLOUR STRENGTH Flour selection is particularly important when using long preferments. The flour must have sufficient strength and stability to tolerate the planned fermentation without excessive gluten degradation. Fermentation time, temperature and hydration all influence dough strength. Flour should therefore be selected according to the complete production process rather than protein percentage alone. For more detailed information about flour strength, fermentation, hydration, biga, poolish and professional dough management, visit the Professional Pizza Technical Manual. BIGA VS DIRECT DOUGH A direct dough can produce excellent pizza and is often easier to control. Biga introduces an additional fermentation stage and therefore more variables. Its advantage is greater control over flavour, structure and fermentation characteristics. However, mistakes during the preferment stage can affect the entire final dough. Professional consistency comes from understanding and controlling these variables rather than following a formula mechanically. FINAL CONSIDERATIONS Biga is a powerful professional technique, but its effectiveness depends on control. Flour strength, hydration, yeast, temperature and fermentation time must work together. Once these variables are understood, biga becomes more than a recipe. It becomes a fermentation system that allows the pizza maker to design dough with specific structural, aromatic and baking characteristics. Science • Craft • Mastery © 2026 Vincicoppolas. All rights reserved.  .Pizza Flour: How to Choose the Right Flour for Dough, Fermentation and Baking
Flour is one of the most important ingredients in pizza making. It determines dough strength, extensibility, water absorption, fermentation tolerance and, ultimately, the structure of the finished pizza. Choosing the right flour is not simply a matter of selecting a high-protein product. The correct flour depends on the pizza style, hydration, fermentation time, temperature and baking method. For a deeper technical understanding of dough formulation, fermentation and professional pizza-making methods, explore the Professional Pizza Technical Manual. What Makes a Flour Suitable for Pizza? Wheat flour contains proteins that, when mixed with water, form gluten. Gluten creates the elastic network that allows the dough to retain fermentation gases and expand during baking. The main characteristics to consider are:
These characteristics determine how the dough behaves during mixing, fermentation, shaping and baking. Flour Strength and the W Value The W value is commonly used to describe flour strength. As a general reference:
A stronger flour can generally absorb more water and tolerate longer fermentation times. However, stronger does not automatically mean better. Using an excessively strong flour for a short fermentation can produce dough that is too elastic and difficult to stretch. Protein Content Protein percentage can provide a useful indication of flour strength, but it does not tell the complete story. Two flours with the same protein percentage may behave very differently because the quality of those proteins and the characteristics of the wheat can vary. For professional pizza making, the flour should therefore be selected according to its actual performance rather than protein percentage alone. Type 00 Flour Italian Tipo 00 flour is finely milled and commonly used for pizza. The designation “00” refers mainly to the level of refinement and mineral content of the flour. It does not automatically indicate strength. A Tipo 00 flour can be weak, medium or very strong depending on the wheat and milling characteristics. This is why the W value, protein content and manufacturer specifications remain important when choosing a flour. Hydration and Water Absorption Different flours absorb different quantities of water. A stronger flour generally supports higher hydration because its gluten structure can retain more water while maintaining dough stability. For example, a flour designed for long fermentation may perform well at 65–75% hydration, while a weaker flour may lose structure at the same hydration. Hydration should therefore always be adjusted to the flour rather than using the same percentage for every dough. To calculate flour, water, salt and yeast quantities according to your preferred hydration and dough-ball weight, use the Professional Pizza Dough Calculator. Fermentation Time Flour strength should match the total fermentation process. For short fermentation, a medium-strength flour is usually sufficient. Long fermentation requires flour capable of maintaining its structure while enzymes gradually modify starches and proteins. If the flour is too weak, the dough can become sticky, fragile and difficult to handle. If the flour is unnecessarily strong, the dough may remain too resistant and require longer relaxation before stretching. Extensibility and Elasticity A good pizza dough needs balance. Elasticity allows the dough to resist deformation and retain gases. Extensibility allows the dough to stretch without tearing or shrinking excessively. Too much elasticity can make opening the pizza difficult. Too much extensibility with insufficient strength can produce a weak dough that loses structure. Professional dough formulation aims to balance these two characteristics. Matching Flour to Pizza Style Different pizza styles require different flour characteristics. Neapolitan pizza generally requires good extensibility, balanced strength and excellent performance at high baking temperatures. Roman-style pizza and pizza in teglia often require stronger flour because hydration levels and fermentation times can be significantly higher. Classic round pizza can use medium-strength flour when fermentation times and hydration are moderate. The flour should always be chosen as part of the complete dough system rather than as an isolated ingredient. Flour and Preferments Preferments such as biga, poolish and sourdough can place additional demands on flour. Long fermentation and enzymatic activity gradually modify the gluten structure. For this reason, stronger flour is often preferred when preparing biga or long-fermented doughs. The final strength required depends on the percentage of preferment, fermentation temperature and total process time. More detailed explanations of biga, poolish, sourdough, fermentation and dough management are available in the Professional Pizza Technical Manual. The Professional Approach There is no single “best flour” for pizza. The best flour is the one that matches:
Understanding flour allows the pizza maker to control dough behaviour instead of simply following fixed recipes. Professional pizza making begins with selecting ingredients according to the process. Flour is the foundation of that process, and learning how its strength, absorption and extensibility interact with fermentation is essential for achieving consistent results. For practical dough calculations, visit the Professional Pizza Dough Calculator. © 2026 Vincicoppolas. All rights reserved.  Pizza Dough Ball Weight: How It Affects Pizza Size, Thickness and Baking
Dough ball weight is one of the most practical variables in pizza production, but it is often treated simply as a portion size. In reality, the weight of each dough ball affects much more than the amount of dough used. It influences pizza diameter, thickness, handling, crust structure, baking time and consistency during service. For professional pizza production, selecting the correct dough ball weight means balancing the amount of dough with the desired pizza size and style. Why Dough Ball Weight Matters When a dough ball is stretched, its total mass is distributed across the surface of the pizza. If the same weight is stretched to a larger diameter, the dough becomes thinner. If that same weight is stretched to a smaller diameter, the dough becomes thicker. This relationship directly affects the final pizza. A thinner dough usually heats and bakes more quickly, while a thicker dough contains more moisture and requires more energy and time for the centre of the dough to bake correctly. For this reason, dough ball weight should never be considered independently from pizza diameter and baking conditions. Pizza Diameter Changes the Dough Distribution Pizza size is determined by area, not simply by diameter. The surface area of a round pizza increases rapidly as the diameter becomes larger. The mathematical relationship is: Pizza area = π × radius² This means that increasing a pizza from 30 cm to 35 cm creates a much larger increase in surface area than the difference of only 5 cm might suggest. If the dough ball weight remains unchanged while the diameter increases, the dough must be stretched more thinly across that larger surface. This changes the structure of both the centre and the crust. Dough Weight per Surface Area A useful way to compare different pizza sizes is to consider how much dough is distributed over each square centimetre of pizza. For example, a 30 cm pizza has an approximate surface area of 707 cm². If a 250 g dough ball is used: 250 ÷ 707 = approximately 0.35 g of dough per cm² This value can be useful when adapting a successful dough weight to another pizza diameter. Rather than guessing the new weight, the pizzaiolo can maintain a similar relationship between dough quantity and surface area. However, this should be treated as a technical reference rather than an absolute rule because different pizza styles require different thicknesses and crust structures. For deeper technical information about dough formulation, fermentation and ingredient behaviour, see the Professional Pizza Technical Manual. Dough Ball Weight and Pizza Style Different pizza styles distribute dough differently. A pizza with a very thin centre and pronounced cornicione does not use its dough in the same way as a pizza designed to maintain a more uniform thickness across the entire base. Stretching technique also matters. Two pizzaioli can use exactly the same dough ball weight and produce pizzas with different centre thickness and crust dimensions. This is why dough ball weight must be considered together with opening technique, final diameter and desired structure. What Happens When the Dough Ball Is Too Light? If the dough ball contains too little dough for the intended diameter, the centre may become excessively thin during stretching. This can make the dough more difficult to handle and increase the risk of tearing. A very thin centre also loses moisture quickly during baking and can become dry or excessively crisp before the outer crust develops correctly. The problem is not necessarily the dough formula itself. Sometimes the dough is simply being stretched beyond the size appropriate for its weight. What Happens When the Dough Ball Is Too Heavy? Using too much dough for a given diameter produces a thicker base. This can create a pizza that requires a longer baking time for sufficient heat to reach the internal structure. If the oven temperature and baking time remain unchanged, the outside may colour correctly while the centre retains excessive moisture. A heavier dough ball can therefore require adjustments to pizza size, stretching method or baking conditions. Hydration Also Changes the Result Two dough balls with exactly the same weight do not necessarily behave identically. Hydration changes dough softness, extensibility and moisture content. A higher-hydration dough contains more water and can behave differently during stretching and baking compared with a lower-hydration dough of the same total weight. Flour strength, fermentation, final dough temperature and gluten development also influence how easily the dough can be opened to the required diameter. Dough ball weight is therefore one part of a complete dough system. Consistency in Professional Production Standardising dough ball weight is especially important in restaurants and pizzerias. If one dough ball weighs 230 g and another weighs 270 g, the pizzas may require different stretching and baking behaviour even when they come from exactly the same dough batch. Accurate portioning makes it easier to maintain consistent diameter, thickness, cooking and presentation. It also improves production planning because the total amount of dough required can be calculated before mixing. For example, 40 pizzas using 250 g dough balls require 10 kg of finished dough. Once the target dough quantity is known, flour, water, salt, yeast and other ingredients can be calculated according to the required baker’s percentages. Calculate Before You Mix Professional dough production becomes easier when the number of pizzas and target dough ball weight are decided before preparing the dough. The free Vincicoppolas Dough Calculator can be used to calculate the quantities required for each batch based on the number of pizzas, dough ball weight, hydration, salt and yeast. This reduces manual calculations and helps maintain consistent formulas from one production cycle to another. Final Thoughts Dough ball weight is not simply a portion-control number. It connects dough quantity with pizza diameter, thickness, stretching, moisture and baking performance. The correct weight depends on the pizza style, desired diameter, dough characteristics, oven temperature and the final structure you want to achieve. Instead of copying a fixed dough weight, professional pizza makers should establish the relationship between weight and diameter that produces the desired result in their own production system. Once that relationship is established, consistent weighing and accurate calculation make it much easier to reproduce the same pizza every day. © 2026 Vincicoppolas. All rights reserved  Salt in Pizza Dough: How It Controls Fermentation, Gluten and Flavor
Salt is not simply a seasoning in pizza dough. It is a functional ingredient that influences fermentation speed, gluten strength, dough handling and the final flavor of the pizza. Even small changes in salt percentage can produce noticeable differences, especially during long fermentation. Understanding its role makes it easier to create dough that is stable, extensible and consistent. Salt Controls Fermentation Salt slows yeast activity by reducing the amount of water immediately available to the yeast cells. This produces a more controlled fermentation and helps prevent the dough from developing too quickly. Without enough salt, the dough may ferment rapidly, become weak and lose its ability to retain gas. Excessive salt has the opposite effect: fermentation becomes slower and the dough may require more time to reach the correct level of development. Salt should support the fermentation schedule, but it should not be used to correct poor temperature control or an incorrect yeast dosage. Salt Strengthens the Gluten Network During mixing, flour proteins combine with water to form gluten. Salt helps tighten and organise this gluten network, improving the dough’s elasticity, resistance and gas-retention capacity. A properly balanced dough should stretch without tearing while maintaining enough strength to hold its shape. When the salt level is too low, the dough can feel sticky, loose and difficult to control. Too much salt can make the dough excessively tight and resistant, reducing extensibility during opening. How Much Salt Should Be Used? Salt is calculated as a percentage of the total flour weight using baker’s percentages. A common professional range is approximately 2% to 3% of the flour weight, depending on the pizza style, fermentation time, temperature and desired flavor. For example:
The correct percentage should remain consistent from one production batch to another. Measuring salt by eye makes it difficult to control fermentation and final dough quality. Salt and Long Fermentation Salt becomes especially important when dough is fermented for extended periods. During long fermentation, yeast and enzymes continue to change the dough structure. Salt helps moderate this activity, allowing flavor and aroma to develop without the dough becoming excessively weak. However, increasing salt is not a replacement for proper refrigeration. Final dough temperature, yeast dosage and storage temperature must still be controlled carefully. When Should Salt Be Added? Salt must be distributed evenly throughout the dough. It can be dissolved in part of the mixing water or added during mixing once the flour has begun to absorb the water. The exact method depends on the mixer, flour and production process. Avoid leaving concentrated salt in direct contact with yeast for an extended period before mixing. Once all ingredients are properly incorporated into the dough, they can work together normally. What Happens When Salt Is Too Low? Insufficient salt can produce:
A dough may still rise without enough salt, but rising alone does not indicate correct dough development. What Happens When Salt Is Too High? Excessive salt can produce:
Salt Must Be Balanced with the Complete Formula Salt does not work independently. Its effect changes according to hydration, flour strength, yeast quantity, fermentation time and temperature. For professional consistency, every ingredient must be calculated according to the flour weight and matched to the production schedule. The objective is not simply to make the dough rise. The objective is to develop a dough with the correct strength, extensibility, aroma and baking performance. Final Considerations Salt is one of the most important control points in pizza dough production. It regulates fermentation, supports the gluten structure and gives the finished pizza its balanced flavor. Use an accurate scale, calculate salt with baker’s percentages and keep the quantity consistent. A difference of only a few grams can significantly affect a professional dough formula. For precise ingredient quantities, use the Professional Pizza Dough Calculator.For a complete study of dough, fermentation and professional pizza production, discover the Professional Pizza Technical Manual © 2026 Vincicoppolas. All rights reserved.  Dough Temperature in Pizza Making: How It Controls Fermentation and Dough Development Temperature is one of the most important variables in pizza dough production, yet it is often underestimated. Flour, water, yeast and salt determine the basic formulation of the dough, but temperature determines how quickly that dough develops. Two doughs made with exactly the same ingredients and percentages can behave very differently when their temperatures are different. Understanding and controlling dough temperature therefore helps produce more consistent fermentation, better dough structure and more predictable results. Why Dough Temperature Matters Yeast activity is directly influenced by temperature. As dough temperature increases, fermentation generally becomes faster. At lower temperatures, fermentation slows down. This means that fermentation time should never be considered independently from temperature. For example, a dough fermenting for eight hours in a warm kitchen will develop differently from the same dough fermenting for eight hours in a cooler environment. Professional dough management therefore requires controlling both: Time + Temperature rather than relying only on a fixed number of fermentation hours. Final Dough Temperature One of the most useful measurements is the Final Dough Temperature, often measured immediately after mixing. The final temperature of the dough affects the speed at which fermentation begins and continues. Even a difference of only a few degrees can noticeably change dough development. There is no single ideal temperature for every pizza dough because the target depends on several factors, including flour strength, hydration, yeast quantity, fermentation method and total fermentation time. The objective is not simply to reach one specific number. The objective is consistency. If a dough performs well when it finishes mixing at a particular temperature, reproducing approximately the same conditions makes the fermentation process easier to control. Water Temperature as a Control Tool In a working kitchen, flour temperature and room temperature are not always easy to change. Water temperature, however, can be adjusted immediately. For this reason, water is one of the most effective tools available to the pizza maker for controlling final dough temperature. During warmer periods, cooler water can help prevent the dough from becoming excessively warm during mixing. During colder periods, slightly warmer water can help achieve the desired final dough temperature. This becomes particularly important when using spiral mixers or other mechanical mixers because mixing generates friction, and friction generates heat. The longer and more intensive the mixing process, the greater the potential temperature increase. Temperature and Fermentation Speed A common mistake is to increase yeast whenever dough appears to ferment too slowly. But yeast quantity is only one part of the equation. Before changing the recipe, it is useful to check:
Sometimes a fermentation problem is not caused by the recipe at all. It is caused by temperature. Accurate temperature control allows yeast quantities to remain more consistent and reduces unnecessary adjustments to the dough formulation. Refrigeration Does Not Stop Fermentation Immediately When dough is placed inside a refrigerator, fermentation does not instantly stop. The centre of the dough needs time to cool. During this period, yeast remains active and fermentation continues. Large dough masses cool more slowly than individual dough balls, which means that fermentation behaviour can also change depending on whether the dough is refrigerated in bulk or after balling. The actual temperature of the refrigerator is therefore just as important as the temperature displayed on its control panel. For professional production, measuring the real operating temperature can help identify unexpected fermentation changes. Room Temperature Before Baking Temperature management continues after refrigeration. Cold dough normally requires time to become sufficiently extensible before stretching. If dough is used while excessively cold, it may feel tight and resistant. If it remains at room temperature for too long, fermentation can progress too far and the dough may become weak, sticky or difficult to control. The correct timing depends on the dough formulation, fermentation stage and ambient temperature. This is why professional pizza making is not based on fixed rules alone. It requires observing how the dough responds under actual working conditions. Measuring Instead of Guessing A simple digital probe thermometer can be one of the most valuable tools in a professional pizza kitchen. Recording temperatures helps identify patterns and makes it easier to reproduce successful dough. Useful measurements include:
Over time, these measurements provide valuable information about how the dough behaves throughout the year. Combine Temperature With Accurate Dough Formulation Temperature control works best when the dough formulation itself is accurate. The Professional Pizza Dough Calculator can be used to calculate ingredient quantities and baker’s percentages more consistently. For a deeper technical approach to fermentation, hydration, flour characteristics and professional dough management, see the Professional Pizza Technical Manual. Final Thoughts Successful pizza dough is not controlled by one ingredient or one fermentation time. It is the result of several variables working together. Temperature is one of the most important of those variables because it influences fermentation from the moment the dough is mixed until it is ready to bake. By measuring temperature instead of relying only on experience or fixed fermentation times, pizza makers can achieve greater consistency and better control over their dough. © 2026 Vincicoppolas. All rights reserved. |
Vinci CoppolasAuthor of the Professional Pizza Technical Manual and creator of the free Archives
October 2026
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