Finished pizza made with 70 percent hydration dough, showing a well-risen and evenly browned crust

70% Hydration Pizza Dough Recipe for Four Pizzas

Written by: Kevin Lo

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Published on

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Time to read 12 min

Most pizza dough recipes describe the moment when the dough becomes smooth and pulls cleanly from the bowl. This batch did not reach that point as neatly as I expected.

I scaled my usual larger formula down to 520 g of flour so it would make four home-size pizzas. The quantities were right, but the smaller batch behaved differently in our 7L home stand mixer. When the yeast water and final water went in, the hook sometimes stopped carrying the dough. We had to stop the machine, scrape the bowl, turn the dough by hand, and start again.

After 20 minutes 30 seconds of mixing, the dough was still a little rough and had reached 84°F (29°C), warmer than I wanted. Twenty minutes of covered rest followed by one fold made the difference: the dough became smoother, and after another 40 minutes at room temperature it was soft, elastic, and close to double its original size.

I am including those details because they are part of the recipe. A smaller batch is not always a faster or easier batch, especially when the dough hook has trouble maintaining contact.

Quick answer: This 70% hydration pizza dough uses 520 g Type 00 flour, 364 g total water, 10 g salt, and 1 g fresh yeast. It produced four dough balls weighing 215–220 g after normal mixer and handling loss. I cold-fermented them for 48 hours at 39.6°F (4.2°C), then allowed about three hours of covered room-temperature warm-up before opening them.

What Does 70% Hydration Mean?

Hydration is the weight of the water expressed as a percentage of the flour weight. In this recipe:

364 g water ÷ 520 g flour = 70% hydration

That percentage gives me a soft, extensible dough, but it also means the water must be incorporated carefully. Rather than pouring everything into the bowl at once, I divide the water into three parts and add it in stages.

70% Hydration Dough Formula
Ingredient Weight Baker’s percentage
Type 00 flour 520 g 100%
Water, total 364 g 70%
Salt 10 g 1.9%
Fresh yeast 1 g 0.2%
Theoretical dough weight 895 g Four portions of about 215–220 g after handling loss

The ingredient total is 895 g. This test produced four finished portions weighing 220 g, 215 g, 215 g, and 218 g—a total of 868 g. The remaining 27 g stayed on the bowl, hook, scraper, and hands. For that reason, I describe the yield as four dough balls of approximately 215–220 g rather than promising four identical 220 g portions.

Type 00 flour, salt, fresh yeast, and three measured water portions for 70 percent hydration dough

The 364 g of water is divided into cold main water, warm yeast water, and a final held-back addition.

Prepare the Water Before Mixing

Before mixing, divide the 364 g of water into three portions:

  • 314 g cold water at 48°F (9°C): approximately 236 g for the first addition and 78 g for the second
  • 20 g warm water at 97°F (36.2°C): used to dissolve the fresh yeast
  • 30 g cold water at 48°F (9°C): held back for the final addition

The kitchen was 84°F (29°C), so keeping the main water cold helped control the dough temperature. If ice is needed, weigh the ice and liquid water together—the combined weight must still be 314 g.

A Note About the Mixer and Speeds

The speed numbers below refer to the 7L home stand mixer used for this test. Another mixer may have different gearing, bowl geometry, or minimum batch requirements, so I would not copy the speed numbers blindly.

With only 520 g of flour in the bowl, the hook could mix the dough, but it did not carry it continuously through every water addition. We especially needed to intervene after adding the yeast water and the final 30 g of water.

Always switch the mixer off before scraping the bowl, touching the dough, or turning it by hand. Never reach into a moving mixer.

Tested Mixer Schedule for This 520 g Flour Batch
Stage Mixer speed Time What happened
Dry-mix first half of flour 2 2 min Flour remained dry and loose
First cold-water addition 2 2 min 30 sec A wet, incomplete mixture formed
Remaining flour and cold water 2 2 min Dough began forming a rough mass
Fresh-yeast water 2–3 4 min Mixer stopped for scraping and one manual turn
Salt 3 1 min Added after yeast water was incorporated
Final 30 g cold water 2–3 4 min Mixer stopped again for scraping and turning
Fast finish 4 5 min Final dough temperature reached 84°F (29°C)
Total active mixing — 20 min 30 sec Speed numbers apply only to the mixer used in this test

Step 1: Dry-Mix Half of the Flour

Add 260 g of the flour to the mixer bowl and run the machine at speed 2 for two minutes.

This is simply the starting sequence used in this test. The flour will still look dry and loose when the time is up.

Step 2: Add the First Cold Water

Keep the mixer at speed 2 and gradually add approximately 236 g of the 9°C cold water. Mix for two minutes 30 seconds.

At this point the mixture will look wet and incomplete. Do not add extra flour to make it look like a finished dough.

Type 00 flour beginning to hydrate after the first cold-water addition in a stand mixer

After the first water addition, the mixture still looks wet and unfinished. I do not correct it with extra flour.

Step 3: Add the Remaining Flour and Cold Water

Add the remaining 260 g of flour, followed gradually by the remaining 78 g of cold water. Continue at speed 2 for two minutes.

The dough will begin gathering into a rough mass. It does not need to look smooth yet.

Step 4: Add the Fresh-Yeast Water

Dissolve 1 g of fresh yeast in the 20 g of warm water, measured at 97°F (36.2°C) in this test. Add it gradually while mixing between speeds 2 and 3 for four minutes.

This was one of the stages when the small batch became difficult for the hook to carry. We stopped the mixer, scraped down the bowl, turned the dough over by hand, and restarted it. That helped the hook make contact again.

The four-minute mixing period also gave the yeast mixture time to distribute before the salt was added. I prefer not to drop fresh yeast and salt together in one concentrated spot because salt can inhibit yeast when the two meet directly at high concentration.

Small batch of 70 percent hydration pizza dough beginning to wrap around the mixer hook

With only 520 g of flour, the hook sometimes lost contact after a liquid addition and needed the dough to be turned by hand.

Step 5: Add the Salt


Add 10 g of salt directly to the dough and mix at speed 3 for one minute.

The dough may tighten briefly. That is expected; the final held-back water goes in next.

Step 6: Add the Final Water

Reduce the mixer to speed 2–3 and add the final 30 g of 9°C water a little at a time. Mix for four minutes while the dough absorbs it.

This was the second stage when our mixer struggled with the small batch. Stop and scrape the bowl if water is pooling underneath or the hook is spinning without turning the dough. Turn the dough over, restart the machine, and allow each addition to disappear before adding more.

Step 7: Finish at the Faster Speed

Increase the mixer to speed 4 and mix for five minutes. The complete active mixing schedule in this test was 20 minutes 30 seconds.

When the dough came out, its temperature was 84°F (29°C). I would prefer a cooler finish, closer to 77°F (25°C), but the longer mixing time and warm room raised the temperature. The gluten also looked coarser than it normally does in my larger mixer.

I did not keep mixing in pursuit of a perfectly smooth surface. More machine time would have added even more heat.

 Freshly mixed pizza dough measuring 29 degrees Celsius after leaving the stand mixer

The final dough reached 29°C after 20 minutes 30 seconds of mixing—warmer and rougher than I wanted.

Step 8: Rest for 20 Minutes, Then Fold

Transfer the dough to a covered container and let it rest for 20 minutes. After that rest, fold the dough over itself to reorganize and tighten it.

This short pause did what extra mixing had not: the surface became noticeably smoother after the fold. Rest gave the flour time to hydrate and the gluten time to relax without adding more heat from the mixer.

Smooth 70 percent hydration pizza dough after a 20-minute rest and one fold

A 20-minute covered rest and one fold smoothed the dough without adding more mixer heat.

Step 9: Complete the One-Hour Room-Temperature Rest

After the fold, keep the dough covered for another 40 minutes. Together with the first 20-minute rest, the total post-mixing room-temperature time is one hour.

The room was 84°F (29°C), and this batch expanded to approximately twice its starting volume. In a cooler kitchen, the same change may take longer. I would watch the dough rather than waiting for an exact hour regardless of temperature.

At the end of the rest, the dough felt soft and elastic rather than rough and tight.

Step 10: Divide and Ball the Dough

Divide the dough into four portions. Our actual weights were:220 g, 215 g,215 g, 218 g.

Round each portion into a ball, close the seam underneath, and place it seam-side down in a lightly oiled dough container. Close the lid completely before refrigeration.

For the balling method I use, see How to Ball Pizza Dough.

Four 215 to 220 gram pizza dough balls portioned into individual KEVJES containers

The finished batch yielded four portions weighing between 215 g and 220 g.

Step 11: Cold-Ferment for 48 Hours

The refrigerator measured 39.6°F (4.2°C). After 48 hours, the dough had spread across the bottom of each container and still held a smooth, rounded surface with visible lift.

This is the schedule I use most often, but time cannot be separated from temperature, yeast quantity, and dough temperature. My side-by-side test in Pizza Dough Cold Fermentation: 24 vs. 48 vs. 72 Hours shows how the same batch changed across three refrigeration times.

Four pizza dough balls after 48 hours of cold fermentation at 4.2 degrees Celsius

After 48 hours at 4.2°C, the dough had filled the bottom of each container while retaining a rounded surface.

Step 12: Warm the Dough Before Opening

I took the dough out of the refrigerator and kept it covered at room temperature for about three hours. In this 84°F (29°C) room, the dough rose above the container rim and was easy to open.

The 500ml containers kept the portions separated and covered, but the 215–220 g balls grew enough during this particular 48-hour ferment and warm three-hour rest to touch the lids. Removing a lid caused some of the surface bubbles to recede. That did not prevent the dough from stretching, but it made the top less attractive in photographs.

For this warm schedule, I would use a 1000ml container next time when the dough ball is above approximately 210 g. The additional headroom prevents the lid from touching the top of a fully warmed dough ball. A 500ml container can still work for a similar weight when the room is cooler, the warm-up is shorter, or the dough expands less; the container choice should match the full fermentation plan, not weight alone.

For more detail on the final warm-up, see How Long Should Pizza Dough Sit Out Before Baking? Before stretching, I also check the signs described in How to Tell When Pizza Dough Is Properly Proofed.

Proofed pizza dough rising above a 500ml container after three hours at room temperature

In a 29°C room, the 215–220 g dough balls rose above the 500ml container rims and touched the lids.

Warm 70 percent hydration pizza dough released onto a lightly floured work surface

The lid contact changed the appearance of some surface bubbles, but the dough still released and opened easily.

Baking Note From This Test

For the trial bake, the dedicated electric pizza oven was set to 617°F (325°C) bottom heat and 527°F (275°C) top heat, and the pizza baked for approximately eight minutes.

The baked slice showed a relatively thin base with small, open air pockets, while the outer rim browned evenly. That is the result from this particular bake, not proof that the same settings will produce an identical crust in another oven.

I am still testing that combination for thin-crust pizza on a steel plate, so I would not present it as the final setting for every oven. A home oven may only reach 480–535°F (250–280°C), and its stone, steel, heating elements, and recovery time will behave differently. Preheat the baking surface thoroughly, use the highest safe setting for your equipment, and judge the pizza by the base and top rather than copying eight minutes automatically.

What I Would Change Next Time

The formula worked, but the test revealed three practical improvements:

1. Reduce heat during mixing. In a 29°C kitchen, I would chill the flour or mixer bowl and pause the machine if the dough temperature rises too quickly.

2. Do not expect the small batch to behave like a 2 kg flour batch. The hook needed help after the yeast water and final water additions. Stopping, scraping, and turning the dough was more effective than letting the hook spin without carrying it.

3. Use more container headroom for the full warm-up. For 215–220 g balls following this 48-hour schedule and a three-hour rest in a warm room, I would choose the 1000ml container next time.

None of these observations means the batch failed. The dough became smooth after its rest and fold, doubled during the one-hour room-temperature stage, fermented well in the refrigerator, and opened easily after warming. They simply show where this small-batch workflow can be improved.

🍕 Frequently Asked Questions (FAQ)

Is 70% hydration pizza dough difficult to handle?

It is softer and stickier than a lower-hydration dough, especially before the gluten has developed. Staged water additions, a covered rest, and wet or lightly damp hands make it more manageable. Avoid adding extra flour only because the dough looks rough during an early mixing stage.

Can a 7L stand mixer handle only 520 g of flour?

Our mixer completed the batch, but the dough hook did not carry it continuously after the smaller liquid additions. We needed to stop, scrape, and turn the dough by hand. Whether another 7L mixer works will depend on its hook-to-bowl clearance and minimum batch size.

Why is the water added in stages?

Holding back part of the water lets the dough begin developing structure before the final water is incorporated. This technique is often called bassinage. In this test, the last 30 g was the most difficult addition for the small mixer, so it had to be added gradually.

Why did the final dough reach 84°F (29°C)?

The room was already 84°F, and the mixer needed 20 minutes 30 seconds of active mixing to incorporate the small staged additions. Mixer friction added more heat. The cold water helped, but it did not keep this batch at the preferred 77°F target.

Can I use all-purpose flour for this recipe?

Different flours absorb and hold water differently. I tested this formula with Type 00 flour. A strong bread flour may also work, but an all-purpose flour may feel looser at 70% hydration. If changing flour, hold back some water and add it only if the dough can support it.

Should I use a 500ml or 1000ml container for these dough balls?

The four 215–220 g balls fit into 500ml containers when first divided and after refrigeration. After three hours in a 29°C room, however, they rose above the rims and touched the lids. For this full schedule, I would choose 1000ml containers for additional headroom. The KEVJES container size guide explains the usual weight ranges, but room temperature and fermentation time also affect the choice.

Conclusion

This small batch reminded me that scaling down the ingredients does not scale down every part of the process in the same way.

The 520 g flour formula produced four useful 215–220 g portions, but our home mixer needed more time and two manual stops to keep the dough moving. The finished dough came out warm and rough. Instead of mixing it even longer, I gave it 20 minutes, folded it once, and let it finish its one-hour room-temperature rest. That was enough to turn it smooth, soft, and elastic.

After 48 hours at 39.6°F and about three covered hours in a warm room, the dough opened easily. Next time, I would manage the mixing temperature more carefully and give these portions more headroom during the final warm-up.

That is the version of the recipe I trust: not only the clean ingredient list, but also the awkward moments in the bowl and the adjustments that made the dough work.

ABOUT THE AUTHOR

Kevin Lo is making a pizza dough ball

Kevin Lo

Passionate pizza maker and the heart behind KEVJES. Since I first designed our original silicone dough containers in 2021, my mission has been to simplify the art of proofing for everyone. Today, I’m incredibly proud to see KEVJES highly rated by the pizza community on Amazon. This space is where I share the techniques and tools that have transformed my baking—dive into the science of fermentation with me, one perfect crust at a time.