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How to achieve your perfect chocolate chip cookie

How to achieve your perfect chocolate chip cookie

By: izzah zainal | February 16, 2025

A few tweaks — more sugar, a dash of milk — can make cookies crispy, chewy, or cakey.

Good bakers know how to follow recipes. Great bakers know how to tweak them — how to deviate subtly from the printed word and create something that’s not just tasty but tailor-made to your palate. The line between good and great is surprisingly easy to navigate when it comes to chocolate chip cookies. All you need is a little cookie science and a friendly guide to show you the way.

Just a few simple changes can turn a regular chocolate chip cookie into one that’s extra-crunchy, extra-chewy, or extra-cakey. We recommend using our Easy Chocolate Chip Cookies recipe, but these tips are broadly applicable to chocolate chip cookie recipe that makes a similar quantity of finished cookies.

How to make crunchy chocolate chip cookies

Add 2 tablespoons granulated sugar and bake for 2 to 4 extra minutes.

What does the extra sugar do to the cookie dough?

Although sugar may seem like a simple ingredient, it plays a very important and complex role in cookie dough. It contributes to both texture and flavor in many ways: It melts in the heat of the oven to increase spread, and it creates little air pockets in the dough to expand and make cookies rise. Sugar also caramelizes and participates in Maillard reactions to add both color and additional flavor notes, and it recrystallizes upon cooling to give the cookies crispy texture. (Maillard reactions are when amino acids react with sugars to give you the brown color and caramelized flavor in baked goods.)

When adding an extra few tablespoons of granulated sugar, you increase the ratio of sugar to fat and flour in the cookie. This will result in a bit more spread, a larger surface area and more material to caramelize and react and, of course, a little bit of extra sweetness as well, which never hurts.

You may notice that the cookies won’t be crispy immediately out of the oven; that happens later. While the exact science of cookie cooling is still somewhat of a mystery, one theory is that as the molten sugar retreats to its crystalline structure and solidifies, the cookie becomes crispy as opposed to bendy. Working with that theory, we can then understand why the more sugar present to recrystallize, the more snap your cookie will have.

How does granulated sugar act differently than brown sugar?

Granulated sugar contains little to no “invert sugar,” which is what you find in the molasses or refiners syrup added to brown sugar. This invert sugar is actually single monosaccharide molecules that were created by breaking down the double disaccharide molecules that make up granulated or table sugar (sucrose). These monosaccharides possess different chemical properties that make cookies chewier, as we’ll see in the tip below.

Why the different bake time?

By adding extra sugar, you can bake the cookies to a slightly higher temperature without over-baking, which will allow for a crispier final cookie as well as deeper flavor development.

Why not just bake any version longer to get a crunchy cookie without added sugar?

While it’s certainly true that baking any cookie longer will cause it to have a firmer final texture, having the extra granulated sugar allows the cookie to maintain a tender, “snappy,” crisp texture (due to the properties discussed above), as opposed to a less enjoyable hard/crunchy texture.

How to make chewy chocolate chip cookies

Add 2 tablespoons brown sugar.

What does extra brown sugar do to the cookie dough?

While brown sugar is similar to granulated sugar in many ways, it has one major functional component that granulated sugar does not: invert sugar!

The two primary invert sugar monosaccharides found in brown sugar are glucose and fructose, which are actually bound together to make the disaccharide sucrose — what Americans know as our standard white table sugar.

Compared to sucrose, invert sugars caramelize at a lower temperature, and absorb and retain more moisture; fructose is particularly hygroscopic, meaning it really loves to suck up and hold onto water.

Invert sugars also interfere with recrystallization upon cooling, which helps make cookies crisp. By holding that extra moisture and delaying the sugar’s recrystallization, brown sugar has the wonderful ability to give you a moist, bendy, chewy cookie.

Does it make the chocolate chip cookie extra sweet?

While a particularly perceptive taster might be able to tell the difference in sweetness with the additional two tablespoons brown sugar, the overall sweetness level only increased slightly. It’s really just a delightfully sweet cookie at either level.

Do light and dark brown sugar work the same?

In fact, they do. The differences between light and dark brown sugar in terms of the amount or types of syrup used are usually minimal, even though you might expect otherwise given the significant difference in coloration.

How to make cakey chocolate chip cookies

Add 2 tablespoons milk.

What does extra brown sugar do to the cookie dough?

Although it may seem obvious, the most important role extra milk plays is adding a little more liquid. As cookie dough is very low in hydration, that two tablespoons of milk have more of an impact here than in something with higher hydration, such as cake batter.

Milk is around 85% water — and that water will evaporate in the heat of the oven to form steam. This steam will migrate to air pockets created by the melting sugar grains.

As the steam gets hotter, it teams up with gases produced by the leaveners, expanding those air pockets. That expansion causes the cookies to puff and rise in the oven, creating an airy, cakey texture.

The moisture contributed by the milk will also increase spread and hydrate more of the starches in the flour. These hydrated (gelatinized) starches support the structure of the air pocket wall, keeping the cookies from collapsing once cooled. By holding more water, they also help keep the cookies softer over time.

Why milk and not water?

While milk is mostly water, those other little molecules in milk do serve a purpose. First, their presence means that there’s 15% less liquid being added to the dough, and this helps prevent the dough from spreading too far and turning into some less-than-ideal chocolate chip pancakes in the oven.

The proteins in milk — about 3% to 4% — will enhance Maillard reactions (as discussed above) and contribute many of the flavor notes that we recognize as “baked,” giving the cookies their roasted, toasted, and even sometimes nutty notes. Finally, the fat and sugar from the milk also add extra tenderness and richer flavor.

Sugar creamed with warm or melted butter is grainy and greasy.

If your butter is just right

Now that we’ve seen both extremes, let’s check out the results when the butter is at the right temperature. The mixture is lightened in color, it’s visibly fluffy, and it’s not clinging to the sides of the bowl.

Sugar creamed with room temperature butter is pale and fluffy.

Let’s look at the three results side by side. Starting on the left: too cold and the mixture sits in a lump. Too warm, and the mixture spreads out and has an oily layer. Finally, properly creamed, the mixture sits up tall and has visible fluffy peaks.

From left to right: sugar creamed with cold butter, warm butter, and room temperature butter.

Besides looks, the feel of each mixture will be different as well. Under-creamed and your mix will feel like wet sand or damp cornmeal. Over-creamed, and your mix will have the feel of oil and sugar on your fingers, rather like a facial scrub. Your well-creamed mix will be moist and light and the sugar will be nearly dissolved. You’ll barely feel any grit when you rub it between your fingers.

The right mixing speed and duration for creaming

Of course, having correctly softened butter is just one part of the equation, albeit a big one. Mixing at too high or too low a speed and for too short or long a time will also wreak havoc with your creaming. With the advent of the more powerful stand mixers that we use today, gone are the days of having to whip the butter and sugar mixture on high speed for several minutes to achieve good results. Instead, a moderate speed (typically speed 3 to 4 on a stand mixer) for 2 to 3 minutes is sufficient to get the aeration you’re looking for, being sure to scrape the bowl halfway through.

Under-creamed butter and sugar

If you under-cream your butter and sugar mixture, it will remain dense, grainy, and dark in color:

Under-creamed butter and sugar

If you under-cream your butter and sugar mixture, it will remain dense, grainy, and dark in color.

Correctly creamed butter and sugar

Perfectly creamed butter and sugar should be light, fluffy, and pale in color (but not white).

Perfectly creamed butter and sugar

Perfectly creamed butter and sugar should be light, fluffy, and pale in color (but not white).

Over-creamed butter and sugar

If you beat too long and hard, the mixture will be over-creamed, becoming nearly white in color. Because it’s too aerated, it can result in dense, gummy streaks in your cake when baking.

Over-creamed butter and sugar.

Unfortunately, if the butter and sugar has gone this far there’s no going back. We hope you’ve found this information helpful. A picture is worth a thousand words, they say, and we hope these photos and our video will help you achieve the cakes and bakes of your dreams.

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Using the chocolate tempering machine

Using the chocolate tempering machine

By: izzah zainal | February 15, 2025

Need a large quantity of workable chocolate? Then it’s best to use the chocolate tempering machine.

Good To Know:

Why is fluidity so important?

The fluidity of your chocolate determines the thickness of the shell and the snap of your chocolate products: the more fluid your chocolate, the thinner and crunchier your shell will be.

Using chocolate with the right fluidity also saves time: you can cast large moulds in one go with less fluid chocolate. Chocolate with a higher fluidity is better for moulds with a lot of detail, but you’ll need to fill your mould with chocolate 2 to 3 times.

Why is it so important to pre-crystallise chocolate properly?

It helps chocolate harden, and gives it a beautiful satin gloss and a delicious snap. It makes chocolate contract during cooling, which makes it easier to unmould. Badly crystallised or uncrystallised chocolate will turn grey and won’t have an appetising gloss.

What is tempering or pre-crystallising?

The purpose of tempering chocolate is to pre-crystallise the cocoa butter in it, which is important to make your chocolate ready for processing. During tempering, the cocoa butter in the chocolate takes on a stable crystalline form. This guarantees a perfect finished product with a satin gloss and a hard snap. It also makes the chocolate contract during cooling, which makes it easier to unmould. If chocolate is simply melted (between 40 and 45 °C) and then left to cool down to a suitable working temperature, the finished product will not be glossy. If you make the small effort of bringing your chocolate to the right working temperature properly, you are guaranteed to get the desired end result. And that’s what we mean by tempering: bringing chocolate up to the right working temperature while making sure that the crystalline structure of the cocoa butter in it is stable. As you’ll discover below, the three key principles for proper tempering are time, temperature and movement.

Step 1

Pour a small amout of chocolate into a plastic or glass bowl.

Step 2

Place the bowl in a microwave and melt the chocolate at 800-1,000 W.

Step 3

Take the chocolate out of the microwave every 15 to 20 seconds and stir well to make sure that the heat is distributed evenly throughout and to keep the chocolate from burning.

Step 4

Repeat this procedure until the chocolate has almost entirely melted. Some small pieces of chocolate should still be visible in the bowl.

Step 5

Take the bowl out of the microwave and stir the chocolate well until all the pieces of chocolate have disappeared. You’ll notice that your chocolate is now smooth and slightly thicker. That means it is properly tempered and ready for use.

Which chocolate needs to be tempered?

Each variety or type of chocolate should be tempered before you use it to mould chocolates and hollow figures, or to enrobe cakes and chocolates. In short, whenever chocolate needs to have a beautiful satin gloss and a hard snap, tempering is absolutely crucial.

When you add chocolate to dishes as a flavour component (e.g. chocolate mousses or bavarian creams), it suffices to simply melt it without tempering. All our recipes clearly indicate if your chocolate should be tempered or not.

A general overview of baking pan materials

The biggest distinction between pans is heat transfer. Metal conducts heat the most efficiently — in other words, it gets hot the quickest and transfers heat evenly across the pan’s surface — which is why many professionals choose aluminum pans. (Another benefit: Metal pans withstand rapid temperature changes, meaning you can take your pie plate from the fridge to the oven without worrying about shattering.)

Glass, on the other hand, is an insulator. Because glass slows the flow of heat between the oven’s air and your dough, it takes more time to heat up than metal — meaning your dough takes longer to heat too. But once it’s hot, it retains that heat well, and it stays hot for longer than metal. For pie, there’s one more bonus: The clear material means you can visibly check how brown your crust is getting.

Ceramic pie pans are usually either stoneware or porcelain, and they can vary based on the material and how it’s made. They can also vary in thickness and thus heat transfer, so ultimate performance depends on which brand or maker you’re baking with. Overall, though, they tend to be slower to transfer heat than more efficient metal pans, though they retain heat well.

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How to store chocolate products

How to store chocolate products

By: izzah zainal | February 7, 2025

Bad storage will have a negative impact on the quality of your finished product. To prevent this from happening, we show you the ins and outs of the proper storing procedure.

Good To Know:

Why is it so important to store your chocolate creations in the right conditions?

Constant storage temperatures are essential to slow down the white-greyish discoloration (i.e. fat bloom) that naturally appears on the chocolate’s surface.

Avoid temperature shocks since they may cause sugar bloom.

Storing chocolate in a space that is too humid or too cold may expose it to condensation, often causes sugar bloom.

Never store chocolate near strong-smelling products as chocolate has the tendency to absorb odours.

How can you slow down the appearance of fat bloom?

Store your finished chocolate products at a constant temperature between 18°C and 20°C. Fat-based fillings (e.g. pralines or nut-based fillings) will make fat bloom appear faster. You can prevent this by adding 5% to 6% cocoa butter to your filling and then pre-crystallising (or tempering) it.

What causes sugar bloom?

Temperature shocks, or storing chocolate in a space that is too humid or too cold (thus exposing it to condensation) in many cases gives rise to sugar bloom.

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How to make chocolates in a mould

How to make chocolates in a mould

By: izzah zainal | February 7, 2025

Eager to get started on those beautiful moulded chocolates? This step-by-step breakdown will help you achieve the perfect end result.

Good To Know:

What should you take to heart when making moulded chocolates?

Use polycarbonate moulds. These yield the best gloss and contract slower than chocolate, making unmoulding far easier. Choose a fluid chocolate: a three-drop or four-drop fluidity is ideal. Heat the moulds briefly before pouring in your chocolate. This way, you’ll avoid temperature shocks that could make your chocolate turn grey afterwards.

Make sure that your filling is smooth and fluid enough to pipe easily. Also check that it isn’t warmer than 28°C, otherwise the filling will make your chocolate shells melt. Try to avoid making smudges on the rims of your chocolate moulds with the filling as they may cause leaks in your chocolate shells. Always fill each chocolate shell individually. Never fill the chocolate shells to the brim. Leave a 1.5-mm opening from the top, otherwise it would be impossible to seal your chocolates properly.

Needed:

  1. Moulds for chocolates (pralines), preferably in polycarbonate
  2. A ladle
  3. Chocolate melter or tempering machine
  4. A small palette knife
  5. A chocolate scraper
  6. Sheet of paper

Step 1

Temper the melted chocolate.

Step 2

Warm your chocolate mould with a heat gun to a temperature of 26 to 27°C, but make sure it doesn’t become warmer than your tempered chocolate.

Step 3

Fill the mould with tempered chocolate. Hold the mould at an angle and scrape off the excess chocolate from the top and sides of the mould.

Step 4

Tap the mould firmly against your worktop to remove any air bubbles from the chocolate.

Step 5

Pour the chocolate back into the melter, but make sure that all sides and corners of the mould cavities are evenly covered with chocolate.

Step 6

Scrape off the excess chocolate from the top and sides of the mould again.

Step 7

Let the chocolate set for about 5 minutes: put the mould on a sheet of paper with is open side facing down and allow the excess chocolate to drip onto it (until the dripped out chocolate begins to set).

Step 8

Scrape off the excess chocolate one last time and leave the chocolate to harden in a refrigerator at 14 to 16°C for a few minutes. The chocolate shells are then ready to be filled with a ganache, praline or other filling.Which type of chocolate is best suited to create moulded chocolates?

For a medium thick chocolate shell:

All chocolate types with a basic three-drop fluidity are right about perfect. They make it easy to create a chocolate layer with the perfect thickness and minimise the chance of having unwanted air bubbles, especially in comparison with more fluid chocolates.

For a fine chocolate shell:

Some chocolate lovers and craftsmen want the chocolate shell of their moulded chocolates to be as fine and crunchy as possible. A more fluid chocolate with a 2% to 4% higher cocoa butter content is absolutely perfect for this. You can easily recognise these types of chocolate by the four-drop symbol indicated on their packaging.

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Baking trials: From metal to glass to ceramic, how does your pie pan affect your crust?

Baking trials: From metal to glass to ceramic, how does your pie pan affect your crust?

By: RedmanShop | February 7, 2025

Choosing the best pan for the best pie.

Baking is often about choices, and sometimes those choices can help you dial in your ideal bake. From selecting a certain cocoa for your chocolate cake to finding the cupcake decoration that feels both beautiful and achievable, bakers have a lot of agency beyond the strict confines of a recipe.

Can baking in a specific type of pan help you achieve a perfectly browned bottom, crispy and golden and not the least bit soggy? Let’s find out.

A general overview of baking pan materials

The biggest distinction between pans is heat transfer. Metal conducts heat the most efficiently — in other words, it gets hot the quickest and transfers heat evenly across the pan’s surface — which is why many professionals choose aluminum pans. (Another benefit: Metal pans withstand rapid temperature changes, meaning you can take your pie plate from the fridge to the oven without worrying about shattering.)

Glass, on the other hand, is an insulator. Because glass slows the flow of heat between the oven’s air and your dough, it takes more time to heat up than metal — meaning your dough takes longer to heat too. But once it’s hot, it retains that heat well, and it stays hot for longer than metal. For pie, there’s one more bonus: The clear material means you can visibly check how brown your crust is getting.

Ceramic pie pans are usually either stoneware or porcelain, and they can vary based on the material and how it’s made. They can also vary in thickness and thus heat transfer, so ultimate performance depends on which brand or maker you’re baking with. Overall, though, they tend to be slower to transfer heat than more efficient metal pans, though they retain heat well.

Putting the pie pans to the test

How these properties affect your baking often depends on the recipe you’re making. In pie, this primarily applies to the bottom crust. The ideal is a crust that cooks quickly and completely, even in a pie with juicy or liquid fillings. Let’s see how Easy Fall Mini Pies made with All-Butter Pie Crust and baked in metal, glass, and ceramic pie plates compare.

Note: Some crusts — notably those with added sugar — will naturally brown better, regardless of pan type. Again, there are always many factors to balance when baking!

The biggest takeaway

Though there were some slight variations among the pans (more below!), all of these pies ultimately turned out well. Their crusts mostly browned, and none were distressingly underbaked. This means that, no matter what kind of pan you currently have in your cupboard, you can still make good pie worthy of serving to friends and family.

Pie made in a metal pan

Of the three pies, the metal pan had the most even browning across the entire bottom crust. From the outer edge to the very center, the crust was golden brown and thoroughly baked. If I had my choice of pans, I’d go with an aluminum one like this.

Pie made in a ceramic pan

While the ceramic-baked* crust was far from soggy, it had the least even browning of the three pies. The center of the pie was pale and slightly underbaked, which wasn’t ideal, while the outer edge had a nice deep brown color.

Pie made in a glass pan

The glass pan resulted in a bottom crust that was somewhat evenly browned, though there was more variance than the metal pan: The center was paler than the outer edge of the crust. That said, the glass-baked crust was darker than the metal-baked crust, which makes sense — glass retains heat longer than metal, so the crust was able to bake further. This is where being able to check your crust color using the clear material comes in handy, especially for fruit pies like apple that can bake for a long time without the filling being adversely affected.

A final trick for perfectly browned crust

More specifically, bake them on a preheated pizza stone or baking steel, which blasts the bottom with a big burst of heat to help the crust set before wet fillings can soak in and make them gummy. Using a metal pan is crucial, though, since it can withstand rapid temperature changes that glass or ceramic pans can’t.

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Butter vs shortening in pie crust

Butter vs shortening in pie crust

By: RedmanShop | February 7, 2025

Pie crust — gotta love it, right?

Flaky and tender when you nail it, tough as rawhide when you don’t, pie crust divides all of us bakers into definitive categories: those who succeed; those who fail, but keep trying; and those who buy Mrs. Smith’s.

Why is pie crust so tough — often literally? Well, it’s all about the fat, the water, and the flour. Three simple ingredients that, together, can create a masterpiece — or mayhem.

Butter vs. shortening in pie crust: the flour

Flour does make a difference, but not as much as you might think. A lower-protein pastry flour will inherently make a more tender crust (and will also be a bit more fragile when you’re rolling it out).

Truthfully, I use our all-purpose flour in my pie crust; I have to be careful not to work it too hard once the water is added (for fear of developing its gluten), but for me, it offers an ideal blend of good results and ease of handling.

The liquid

Make it ice water. Simple enough, right? Sure, you can use milk, add an egg, and try other types of liquid, but water produces reliably good results — so why not? Ah, now comes the ingredient that arguably makes or breaks a pie crust, and also creates the most debate:

The Fat

Your grandma used lard. Your mom used shortening. You use butter. Are all fats created equal?

I decided to find out.

First thing I did was rule out lard. NOT BECAUSE IT’S NOT A PERFECTLY GOOD FAT AND CAPABLE OF MAKING WONDROUSLY TASTY PIE CRUST. After all, our ancestors made lard-crust pies for centuries and, like lard-fried doughnuts, they were delicious.

I’m ruling out lard simply because good, fresh lard isn’t as universally available as shortening and butter. So if you love lard, and have a good supplier – stick with it.

But if butter and vegetable shortening are your choices, read on.

For years, I’ve alternated between two favorite recipes: Gluten-Free Crustless Pumpkin Pie, a crust made with both shortening and butter; and All-Butter Pie Crust.

One Thanksgiving I’d go with an all-butter crust for my Cranberry Hand Pies​; the next, I’d make my Easy Fall Mini Pies with the shortening/butter clone.

But never had I made both crusts in tandem, and done a side-by-side comparison. Which was flakier? Which tasted better?

Butter makes a lighter crust

I made an amazing discovery (amazing to me; we pie geeks are easily amazed): something I’d always believed to be true was absolutely, categorically, without a doubt not true at all.

I’d always told people that a shortening/butter pie crust would have better texture than an all-butter crust, due to shortening’s higher melting point. Why?

Fat keeps the layers of flour/water “matrix” separated as the pie bakes; the longer fat is present in its solid form (score one for shortening, with its high melting point), the more flakes will form, the more tender/flakier the crust will be.

Now, that may be true. I didn’t actually count the number of flaky layers in each crust.

But one thing was abundantly clear: the all-butter crust (above left) made a lighter crust, with more defined flakes than the butter/shortening combination (above right).

I was totally puzzled until it dawned on me: butter contains more water than shortening.

As the crust bakes, that water is converted to steam, puffing up the crust (and its flakes) like someone blowing up a balloon.

Each fat adds its own distinct flavor

And flavor? The all-butter crust tasted — well, buttery, of course. The butter/shortening crust (which was, by the way, just as tender and flaky as the butter crust, but without its light texture) tasted a bit like butter, and a bit like pie crust — that indefinable something that tells your taste buds, yes, I’m eating a piece of pie.

Both were good — just different. And one of the chief differences was looks: the butter crust produced a very ill-defined edge. My careful fluting basically went up in smoke (er, steam).

So if you’re after looks, stick with the butter/shortening combination (or all shortening). If looks don’t matter to you, I’d go with the all-butter crust.

What about substituting vodka for water?

While I was at it, I decided to test the famous Cook’s Illustrated secret to tender, flaky pie crust: using vodka in place of half the water in the crust.

The theory is that vodka, being alcohol rather than water, will develop flour’s gluten less than plain water, thus creating a more tender crust.

The verdict? I couldn’t discern any difference in the flakiness/tenderness of the vodka vs. non-vodka crusts.

But the vodka crust rolled out more easily; with its silken, smooth texture, it was a pleasure to work with.

So would I add vodka to pie crust? Sure. I think I’ll even keep a little bottle in the fridge, so it’s handy for pie crust or a gimlet — whichever comes first!

OK, I’ve given you a map. And here you stand at the crossroads, ready to make a decision on the butter vs. shortening in pie crust debate.

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How to make the best pie crust

How to make the best pie crust

By: RedmanShop | February 7, 2025

Four critical ingredients and a few key techniques.

Do you suffer from pie crust phobia? If so, you’re not alone; plenty of otherwise confident bakers find themselves furtively hustling a ready-made crust out of the supermarket freezer case into their shopping cart. But life doesn’t have to be that way; you can make the best pie crust ever by following these simple steps:

  1. Choose a good recipe
  2. Start with the right ingredients
  3. Learn a few basic techniques

What I want to emphasize here is the importance of your ingredients: specifically flour, salt, fat, and liquid. Choosing those four ingredients wisely will lead to consistently great pie crust.

1. Flour: It’s all about protein

What kind of flour makes the best pie crust? Well, not high-protein bread flour! Use that for your chewy bagels. What you want for pie is flour that yields a tender, flaky crust, which means medium-protein all-purpose flour or low-protein pastry flour.

What does protein have to do with it?

When you add water to flour some of its protein turns into gluten, an elastic substance that gives baked goods the structure they need to hold together (and to rise when appropriate). The higher the protein level, the stronger the structure.

Strong structure in yeast bread translates to high-rising; but in pie crust, strong structure can be perceived as tough — the last attribute you want applied to your apple pie. So stick to flour with a medium-to-low percentage of protein, which means all-purpose flour (11.7% protein), pastry flour blend (10.3%), or pastry flour (8.0%).

Does the flour with the lowest protein make the best pie crust?

Not necessarily. Yes, you can make tender, flaky pie crust with pastry flour. But it can be a bit of a challenge, particularly for those uncertain of their pie crust skills. Pastry flour pie crust is harder to roll without cracking, and it can split apart at the seams while the pie is baking.

That’s why I choose all-purpose flour for my pie crust. The dough is easier to roll out and move around and, despite its slightly higher protein, the crust is wonderfully flaky. In my book, the ease of an all-purpose flour crust trumps the marginal added tenderness of a pastry flour crust.

2. Salt: Critical for flavour

Salt adds flavor to pie crust. Leave out the salt and, unless you’re used to following a salt-free diet, the crust will taste like cardboard.

I find that when using unsalted butter and/or shortening in your crust, about 1/2 teaspoon salt per cup of flour is just perfect. If you’re using salted butter, reduce the amount of added salt in your crust by 1/4 teaspoon for each 8 tablespoons (1/2 cup) of butter in the recipe.

Since pie crust dough has very little liquid, choose table salt or fine salt. Their finer crystals will disperse more evenly throughout the dough despite the lack of water to dissolve them.

3. Fat: Choose your favourite

Some people love lard in pie crust. Others use liquid vegetable oil. There are those who swear by their grandma’s Crisco crust — and other bakers who eschew solid vegetable shortening for health reasons. Many people love an all-butter crust. And then there’s coconut oil … So many choices!

Butter is a major flavor enhancer, but its low melting point can be an issue. Shortening, with its higher melting point, adds stability to a baking pie crust.

If you have trouble with your crust slipping down the sides of the pan, or if your carefully fashioned crimp around the edge melts and puddles, blame butter. A combination of butter and shortening yields the best qualities of each: flavor and baking stability.

4. Liquid: The ultimate key to texture

As mentioned before, liquid + the protein in flour = gluten. And once that gluten forms, working it — by mixing the pie crust dough, then rolling it out — increases gluten’s strength and decreases the resulting crust’s tenderness.

The best pie crust is a perfect balance between fat, flour, and liquid. Too much fat and the crust may taste greasy and crumble as it bakes. Too much liquid can create extra gluten, leading to tough, chewy crust.

But strike just the right balance — sufficient fat for tenderness without greasiness, and just enough liquid to hold everything together — and you’ve struck pie crust gold.

Water, milk … vodka?

Some bakers use milk or buttermilk in their pie crust. Thanks to their milk solids, both will help crust brown and add a bit of tenderness. But the classic liquid in pie crust is water — ice water, to be precise.

Why ice water? Ice water keeps the bits of fat in the dough cold and intact (rather than melted and dispersed). This creates little pockets of fat that, as the pie bakes, gradually melt and form tiny caverns in the crust — which we describe as flakiness.

Vodka in pie crust has been a popular substitute for ice water in recent years. Why? It’s said that its lower percentage of water (alcohol is part water, part ethanol) means less gluten development, yielding a more tender crust.

In my experience this is partially true; using vodka in pie crust makes a soft, silky dough that’s lovely to roll out. But the resulting crust isn’t any more tender or flaky than an ice-water crust.

And crust whose liquid is 100% vodka can border on being too tender, since less of its gluten has been activated. An all-vodka crust (especially one made with higher-proof vodka) can occasionally fall apart as you move it from countertop to pie pan.

“Add just enough liquid.” What’s just enough?

Less is more: The less liquid you add to pie crust dough (within reason), the more tender it will be.

When the vodka is thoroughly dispersed, I dribble in ice water just until the dough starts to come together. And I mean just enough water. Watch carefully as you stir; when the dough starts to clump, and you grab a handful and squeeze it and it doesn’t crumble into pieces, stop adding water.

Gather the dough into a ball. Divide it in half, and flatten each half into a hockey puck-like disk. That’s it. You’re done. You’ve just made the best pie crust for Cranberry Hand Pies, Gluten-Free Crustless Pumpkin Pie, Easy Fall Mini Pies.

How to make the best pie crust: your takeaways

  1. Use a reliable recipe.
  2. Choose all-purpose flour or pastry flour.
  3. Don’t skip or reduce the salt; it’s critical for flavor.
  4. Various types of fat work well; choose your favorite.
  5. Add just enough liquid to hold the dough together.
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Critical Elements of Bread Making

Critical Elements of Bread Making

Introduction

Understanding the role of Flour, Water, Dough Development and Temperature control are the keys to successful bread making. Understanding the relationship between the four elements and their interdependence enables you to practice mastering the initial art of baking bread.

Floor Quality

Part One of this handbook listed the flour  types, their protein content and their uses. On average, flour with 12 – 14% protein content will give the best result for bread making. The flour requires its ability to form a strong gluten matrix, whether mixed by hand or machine.

The retail supermarket’s flours will produce a satisfactory result, provided you follow the correct processes.

My advice for a beginner is to start with the flour available in the local supermarket and observe the results you achieve with the dough you make from it. Remember, it will require you to prepare many doughs to acquire proficiency with any flour. Resist the  temptation to try different brands until you are  happy with the process and the supermarket  flour results. Once you are satisfied with the handling, processing, baking, etc., look for other flours that may provide different volumes, aromas, etc.

Quote: “Good flour is not cheap and cheap flour is not good “. The secrets are in the process, not the flour! The protein content will guide the amount of water the flour will hold.

Water Absorption

The water content can vary from 58% to 100%, depending on your product and process.

Starting with water at 60% to 75% based on the flour weight of the recipe is an excellent range. I advise having a tight dough (62% – 65%) as you will be more able to handle this. Once you have mastered the process, increase the water gradually and determine what amount suits you best. Water used in the dough also controls the dough temperature and the fermentation rate.

Dough Development

When mixed, the ingredients for the dough of flour, salt, yeast, and water will develop the gluten matrix, which becomes the structure for the bread.The gluten matrix holds the Carbon Dioxide CO2 produced through fermentation, causing the dough to rise. Hand development is satisfactory but a tedious process that requires  time and technique to master.

Using a mixing machine will save time and generally develop better doughs. Some home bakers use their bread machine to mix the dough, remove it once mixed, and continue the bread making process. Reaching the optimum requires understanding  the importance of developing the flour protein.

Gluten Matrix is the optimum development of the gluten proteins: Glutenin (elasticity – ability to resume shape after being stretched) and Gliadin (extensibility – the capacity to stretch). To test the dough development, you do the gluten stretch test. Take a dough ball and stretch it out by pulling it from the sides. A well-developed  dough will be extensible, stretching and not breaking.

MUST KNOW

Dough development through building a solid gluten matrix that will hold in the gas CO2 the yeast produces during fermentation is crucial and will require lots of practice to achieve consistency.

Temperature Control 

The dough’s water temperature depends on the environment, machinery, time taken for fermentation, and the style of dough you are making. Home bakers prefer chilled water in  Singapore or warmer climates.Place the dough water in a chiller (4°C) overnight, ready for use the next day. The chilled water will assist with the  finished dough temperature (after mixing) and  the amount added will help control the yeast’s  growth.

The water temperature where the climate is seasonable will require adjustments to maintain  yeast activity. Observing the performance of the dough at different times of the year will help you better understand how the yeast performs.

What is the optimum temperature for yeast activity? 

Yeast works best at temperatures of 36 to 40°C. The objective when making bread is to be able to control this activity until the dough is in the final proofing stage. In a warm climate keeping the dough cool is the objective.

In contrast, a warmer dough is necessary for consistent fermentation growth when it is frigid in winter in a temperate environment. Hence the use of chilled or tempered water depends on the climate and dough-making style used.

Room temperature refers to the ambient temperature of the room where the doughs are mixed, which will vary due to climatic conditions. An ideal room temperature will be between 22°C to24°C.

The pH of Yeast Dough

The acidity level of the bread is the result of the fermentation process. During the dough fermentation stage, alcohol and carbon dioxide (CO2) react with the organic acids that produce flavour. The yeast growth activity is related to the ambient temperature, water and fermentation time. In typical bread, the pH ranges between
5.3– 5.8, depending on the processing style. In sourdough bread, the pH is lower and ranges from3.8 – 4.6, giving the bread its characteristic flavour.

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Your Personal Guideline

Your Personal Guideline

BEST BAKES

B

Buy a set of digital scales that measure in 1g units. Start your baking journey methodically!

E

Examine and understand the nature of each stage of the process before undertaking it. Check critical details.

S

Specifically weigh all the liquids in the recipe.

T

Temperature management of ingredients and maintaining process control temperatures are vital elements in your success.

B

Baking times and baking temperatures will vary from oven range to oven range. Develop suitable oven settings from your actual experience with that oven.

A

Aeration in its many forms, is the key to all baking. Achieving optimum aeration requires adherence to critical stages of the process and a proper understanding of mixing speeds and times.

K

Keep records of what you have done to identify success when the product is out of the oven. Photos are a good idea.

E

Enjoy each baking experience and be patient with yourself. You might have many failures as you travel along the baking journey. However, family and friends will have the opportunity to enjoy your attempts with gusto.

S

Study the recipe and ingredients thoroughly before attempting to make it!

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Wheat Flour

Wheat Flour

Flour Categories

Flour comes in four categories to cover a variety of bakery products. The Flour classification  refers to its protein level. The protein content is determined by the wheat strain planted by the farmer and the subsequent climatic conditions during growing.

Wholemeal Flour

Protein average: 12% – 14%

High Protein Bread Flour

Protein average: 12% – 14%

Medium Protein Plain Flour

Protein average: 10% – 12% 

Low Protein Cake Flour

Protein average: 7% – 9%

Rye Flour

Protein average: 8% – 15%

Types: Dark Rye, Light Rye

Specialty Flour

Protein average: 12% – 14%

Suitable for Bread, Buns, Pastry, Cakes and Cookies. It can be  used alone but mainly in conjunction with other flour types as a  percentage of the total flour.

Suitable for all types of Bread, Buns and some Pastry.

Suitable for Bread, Pastry, Cakes and Cookies.

Suitable for all types of Cakes, Sponges Cookies and Muffins.  Cake flour can be chlorinated
(It denatures protein and increases absorption) or straight-stream unchlorinated cake flour.

Suitable for bread making on its own or blended with white flour.  The protein differs from wheat flour, containing only Gliadin, resulting in smaller, more compact breads.

Spelt, Einkorn, Kamut and Buckwheat are known as ancient grains. They can be used individually to make bread but are challenging to handle as doughs are sticky. You will blend these with white flour to make bread. Some speciality flours have a gluten-free label.

 

Flour Type and Availability

The protein content of the harvested wheat will finally determine its category and use. Flour is the base ingredient in a recipe, with each grade playing different roles across product ranges. A specific name often identifies flour types, e.g. all-purpose flour from the medium protein range; and self-rising flour, a medium protein flour containing baking powder.


Country generic names such as Hong Kong Flour are identified with certain dim sum products and are low protein flour. European Flours, very popular with Artisan bakers, use a different system which identifies the flour by its extraction rate, e.g., T45 (like plain flour), T55 (like bread flour), and T65 (high- end bread flour)


The extraction rate relates to the flour obtained from the milling process. Flour with a high number after the T means the flour has a high bran content (minerals) from the milling process.

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