The Ramen_Lord Book of Ramen
By Mike Satinover (Ramen_Lord) and Scott Satinover, Ph.D.
Copyright © 2020-2024 by Michael T. Satinover and Scott J. Satinover
All rights reserved.
Table of Contents
Starting with the Basics: What is Ramen? 4
Common Abbreviations for Units of Measure 7
Other Ingredients Worth Discussing 14
Final Noodle Ingredient Remarks 16
Step Two: Partial Hydration 18
Step Three: Remaining Hydration 18
Step Five: The First Pressing 20
New Wave Tokyo Style Noodle 23
Makeshift-Hakata Style Noodle 27
Taishoken Style Tsukemen Noodle 34
Mazesoba / Soupless Ramen Noodle 36
Collagen Conversion to Gelatin 39
Myoglobin Denaturation and Scum Formation 40
Aroma and Flavor Extraction 41
Other Emulsifiers: Starch and Protein Blending 43
Measuring Gelatin and Emulsion Quality 44
Cooking Soup: Many Approaches 45
Cooking Times by Ingredient 48
“Doubutsu Kei” Style Chintan 53
Eifukucho Taishoken style Chintan 55
Yamagata Style “Akayu’ Chintan 55
Additional Techniques for Soup 65
Beyond Salt and Flavor: Adding Umami Concepts 70
Umami From Synergistic Nucleotides 71
Easy Meat Shoyu Tare (Aka Jiro-Style Tare) 79
Sweet Miso Tare (For Akayu Style Bowls) 88
Steeped Egg (Ajitama/Ajidama/Tsuketamago/Ajitamago/Hanjukutamago etc.) 93
Steeping Method Zero: Do Nothing, Eat The Eggs As Prepared Now 95
Steeping Method One: Quick and Easy Brine 95
Steeping Method 2: Equilibrium Brine 96
Combination Method: Braise then Roast 102
All-Purpose Negi (Scallion) Oil 114
Chapter 6: Putting It All Together 120
Step 0: Identify Your Serving Bowl 122
Step 0.5: Get Your Mise en Place Ready 123
Step 3: Add Tare, Aroma Oil, and Soup 124
Step 4: Strain The Noodles 124
Step 5: Separate and Line Up The Noodles: Noodle Fold 125
69'N'Roll One And Multiple-Tare Approach 128
Aburasoba/Mazesoba/Mazemen 128
Example Component Combinations 129
Appendix: Ingredient Discussion (In Progress) 133
Thank you for reading this book! This has been a long time coming. Over the last several years I have tinkered with the idea of making a book, to help everyone - from hardcore ramen-lovers to those simply intrigued by interesting food - find an all-inclusive resource of recipes and ideas on how to make ramen. I felt like it would make sense to make this as widely accessible as possible. An e-book format made the most sense, free for anyone to view at any time.
Many of you probably have never had ramen beyond the dry noodle packages found regularly at your local grocery store. This book is not about that kind of ramen, which is more akin to instant noodles. While tasty in their own right, instant noodles aren’t quite the same thing as the dish discussed in this book. Ramen, a dish originating from Japan, is a complex soup that is challenging to make and, even to this day, still has quite a bit of mystery. I’m hoping I can at least break apart the ambiguity a little, primarily through discussing concepts rather than solely relying on recipes.
As for the rest of you, I know what you are thinking. A book on ramen? That sounds awfully specific. Who is this guy? Why should I even care? Why is an American making ramen? Is this a poor man’s Ivan Orkin?
Not exactly.
My name is Mike. I’m a food nerd who lives in Chicago, and I am particularly obsessed with ramen. Most folks know me by the name “Ramen_Lord” on Reddit, which is pretty ostentatious, I know. The username was tongue-in-cheek at first. I thought I might post some of my creations to the ramen subreddit, /r/ramen, have some fun in the process, and learn along the way. I did not, however, expect my posts to catch on at all. And despite this, people started paying attention.
But what sparked this weird obsession? In all sincerity, it was kind of a coincidence. Many years before my interests really kicked in, I’d been studying Japanese in highschool and college, eating ramen with some mild regularity. Usually, I’d go out to a Japanese market in Chicago called Mitsuwa and splurge on miso ramen. The bowls I had were good, but nothing that really sparked the passion I had now. Driven by my interest in Japan, I stumbled on an opportunity in college to move there as part of a study abroad program at Hokkaido University. Naturally, I applied and was accepted to the program, where I moved to Sapporo for a year. Coincidentally, miso ramen was designed, created, and invented in that city. I thought, hey, I like Japanese food, and ramen is good, I ought to get a taste of the real deal. I mean, surely, it must be better than what I’d eaten before.
I tried a few bowls in touristy destinations like Ramen Yokocho. Felt fine. Packed it up.
But it wasn’t until a friend suggested I try out a shop named Sumire that my total worldview on ramen changed. I remember the experience vividly: I climbed some shambly metal stairs to the side of an office building in the drinking district of Sapporo known as Susukino. I walked past a hanging curtain over the door, and selected “miso ramen” from a ticket machine, sitting down, oblivious to what would happen next.
What arrived was ethereal. A scalding hot bowl of rich intense miso and pork soup, with punches of garlic and ginger and a slight tinge of spice. A blanket of melted lard floating on top, trapping the soup’s heat in the bowl. The aggressively chewy, crinkly yellow noodles, the delicate sprinkling of thinly sliced green onion, tender slices of braised pork. This was unlike ramen, no, any food,I’d ever had. Prior, I’d assumed ramen was tasty junk food. With Sumire, this whole idea of “kodawari”, or obsession with quality, became obvious to me.
All I could think was, “THIS is Sapporo’s legacy!” I had to find more of the stuff.
For the next year in Sapporo, I basically went out for ramen whenever I could. I bought guide books, rented textbooks from the library, and asked friends for recommendations. I even asked a teacher if I could do an independent study on the dish. I started interviewing cooks and writing reviews of places. I made a blog about the best shops. Ramen became my life in Sapporo, the city changed me.
After I’d left Sapporo, I had no choice. I had to start making ramen to satisfy this craving I had built up. Most of my first bowls were just awful. The broth, normally rich and complex, was a putrid mess. The noodles, complete mush. The toppings, a bland and overcooked waste of ingredients. I expected something different and was massively disappointed. Still, I persevered. I continued making ramen for years after, desperately chasing the proverbial dragon, trying to recreate something I had tasted that had transformed me.
When I started posting to /r/ramen, I felt compelled to make ramen more often and share what I could. The community inspired me, as I kept running into other ramen nerds who loved noodles, tiny shops, the broth’s fat glistening on their faces as they slurped to their heart’s delight. I wanted to grow that community and share that love. Over time, my ramen got better. I got better at plating. I developed a better understanding of the dish. Through it all, I found my voice and the direction I wanted to take my craft. Without the support from people in the subreddit, to keep pushing myself and my knowledge, I wouldn’t know half of what I know today.
Today, ramen has effectively exploded with new recipes everywhere. Over the years, I’ve developed more than 20 different recipes for various styles. Although many of these recipes have been posted to Reddit, it’s clear that Reddit isn’t an effective platform for consolidating all of the information available.
Now, I could have just consolidated all my info into a binder and shipped it off. But that’s not really effective for making a great cookbook. A great cookbook has a bunch of literary bells and whistles. It’s gotta have a strong narrative, organized structure, appropriate style, a clear voice, accurately validated claims (of which there are many), while also being accessible. None of that is straightforward, especially when talking about ramen. To make things more challenging, the existing body of knowledge is mysterious, and the content out there is either inaccurate or conveniently omits important details. I know this dish intimately, and I realize that ramen can be broken down into digestible pieces. Really, I firmly believe anyone can improve their ramen making skills… if only they avoid the same mistakes I made along the way. Navigating all of these challenges is pretty hard, so I realized that I needed to consult an expert. Or at least consult a person I knew with experience talking about technical ideas and making them accessible. For everyone.
Enter Scott.
Scott is my twin brother. Don’t let the shockingly similar appearance fool you, although we’re really similar in some regards, we’re also clearly distinct in others. Scott wasn’t as enthusiastic about ramen as I was when I was first writing this book (at least at the start!), even if he knows his way around a kitchen and has plenty of home cooking experience. But being his brother and knowing he’s a decent cook weren’t really the reasons why I wanted his help. Scott is also an experienced scientific and technical writer. While he painstakingly worked through a PhD program, he cultivated a passion from science communication and technical writing, so much so that he still does this for a living in his current profession. He’s been writing about this stuff probably more than anyone I know personally, for just about any audience you can imagine. As an added bonus, his broad scientific background informed a lot of ideas on why certain things worked and others didn’t.
That seemed to be pretty valuable. So, I asked him if he wanted to help me write it, and he jumped at the opportunity. Over several years, we worked together, where I developed recipes, came up with ideas on concepts, and gathered preliminary knowledge, and he meticulously reviewed, edited, structured, and added content along the way. I could not have written this book without him. Seriously, it would not be the book it is today without his contribution, and I’m proud to have him as a coauthor.
So, here we are.
What can you expect from this book? Let’s start with what this book is not. This is not a history or anthropology book on ramen. Although I find the history of ramen fascinating, several authors have already written books on it to a level of detail I couldn’t realistically add to. (Some good ones worth reading are “Slurp, a Social and Culinary History of Ramen: Japan’s Favorite Noodle Soup” by Barak Kushner, and “The Untold History of Ramen: How Political Crisis in Japan Spawned a Global Food Craze” by George Solt1,2.)
And this isn’t a cookbook, per se. There are many cookbooks out there for ramen. Ultimately, this book is meant to break apart ramen into its five components and explain them thoroughly, to help amateurs and cooks understand the components of the dish and to make more thoughtful composed bowls. This book has plenty of recipes, but they’re only examples, archives of the work I’ve done over the last 10 years. They are by no means the be-all-end-all of ramen. I hope that by reading the book, both amateurs and professionals alike will better understand what ramen is made of so that they can create their own exceptional bowls.
So, welcome. Let’s have some fun.
To understand what ramen is, I find it’s easiest to break the dish down into its components, since ramen’s broad historical definition is pretty complex. Each component varies tremendously, so two bowls of ramen side by side might look completely unrelated and still fall under the same umbrella. Even with the definitions I’ll list, there are variations between the five components.
Component 1: Noodles are one of the cornerstones of ramen. Ramen noodles are the most rigid in their definition of the dish. All ramen noodles require some amount of the following ingredients:
No dish is truly ramen without these specific noodles. For me, the ratio of these ingredients (and others) may vary, but the actual approach to making the noodle for a home cook is basically the same.
Component 2: Soup is the other cornerstone of ramen. Except for a handful of soupless styles, all ramen has soup. Japanese consumers overwhelmingly taste the soup first when trying the dish, so the importance of balancing it and delivering it correctly cannot be overstated. Soups range in complexity but can be generally broken down into two categories:
These broths can be broken down further, based on the viscosity, intensity of flavor, additional additives, or ingredient choice, but the point is that soup exists on a host of stages and styles.
Component 3: Tare is a potent sauce or paste that effectively seasons the bowl; without tare, the soup has no salt. Tares often contain flavor compounds to add additional complexity and umami. Tares are numerous and range in style, but they typically fall into three broad categories depending on the primary ingredient used:
Component 4: Toppings: Toppings are perhaps the component of ramen with the most versatility. They create the ultimate visual impact of the bowl.
Toppings tend to fall into several categories:
Component 5: aroma oil: If tare is the most secretive component of ramen, aroma oil is easily the most overlooked, particularly outside of Japan. Fat is a critical component of ramen’s taste; it provides mouthfeel, glossy visual appeal, and fat-soluble flavors. Modern ramen shops diligently control the fat content of their final dishes, often adding additional fat that has been cooked with aromatic items like alliums, vegetables, or other aromatic ingredients. Ramen most often uses animal fats, though cooks don’t completely rule out vegetable oils.
Those are the main components of ramen. In this book, I dedicate a chapter to each component, and a final chapter to particular styles, their assembly, and which components they use. Ultimately, I want you to understand the nuances and methods of each component, so that as you get comfortable, you can swap between specific components based on personal preference. Over time I hope you’ll be inspired to create ramen that aligns with your style and tastes.
While subjective preferences drive a lot of the decisions involved in ramen (and in all food), ramen can be an art in precision. Sometimes units like cups and ounces aren’t precise enough to consistently create the intended bowl of noodles. So, as a fan of consistency, this book uses metric for all of the units of measurement, using English units as an occasional backup. As you’ll soon discover, grams and milliliters have the right amount of precision for making noodles. Truthfully, the metric system, more formally known as the International System of Units, is king, and I plan to stay true to that mantra. Also metric is just so much easier to deal with. Like, get it together America.
If you’re going to be making the recipes in this book, you will need a scale, preferably one that has at least 1 g precision (and for noodles, you’ll want one preferably that goes to 0.1 g). I use the OXO good grips 5 lb scale for most measurements, and for noodles, I use a small jeweler’s scale that measures within 0.1 g precision3,4. Scales have wide-ranging applications in your kitchen, even outside of ramen. Everything from cookies, pies, cakes, breads, and stir-fries are just so much more consistent when you start weighing some of the ingredients you put in your food.
That doesn’t mean volumes are pointless though. Volumes play an important role in cooking, like for measuring liquids in large quantities where precision is less important, as well as being helpful when assembling ramen. Mass, by contrast, works much better for measuring more precise amounts of liquids and for measuring virtually any solid. Scott argues that you can measure volumes precisely, and he is right... but am I really going to ask anyone to buy a bunch of (expensive!) pipettes to make ramen? Probably not. Scott thinks it could be worth it anyway. Scientists, I swear.
mL: milliliter
L: liter
in: inch
cm: centimeter
g: grams
mg: milligrams
lb: pounds
oz: fluid ounces
°F: degrees Fahrenheit
°C: degrees Celsius
tbsp: tablespoon
tsp: teaspoon
Noodles’ creation, at its core, is a combination of art and science. But many home and professional cooks overlook the science part, resulting in vast oversimplification of this otherwise complex process. They often provide inadequate guidance and inaccurate recipes, all while avoiding the nuance of different noodle styles and how different noodles pair with different broths. In this chapter, I’ll cover all of those aspects, from general noodle rules of thumb, to the oft neglected science, and techniques behind making excellent ramen noodles at home.
Before I begin, I should note: noodles are the most labor-intensive part of ramen making for home cooks. Ramen was designed when noodles were manufactured by machines. It doesn’t have a history of hand-making like soba or udon. The dough has a very low water content compared to other doughs you might work with at home, making it challenging to wrangle. As a result, most modern ramen noodles are machine made. Even the majority of shops in Japan outsource noodle production.
For a home cook, they suck to make. You will swear, sweat, and ache the first time you make them. So for beginners, I highly recommend skipping noodle-making until you feel comfortable with the other components of ramen. Many noodle brands exist; go to your local Asian grocery store and look in the freezer section. I particularly like Sun Noodle (they make a wide variety of noodle styles), but whichever noodle you buy, it will save you a ton of time. Disclaimer aside, if you’re still interested in noodle making, read on.
Regarding the etymology, the term “ramen” has a vague history, with some claiming it’s derived from the Chinese “la-mien” hand-pulled noodles, and others telling folk-etymology stories where a cook in Sapporo called out “Hao-la” when he was done making his noodle soup, to tell waitstaff to get the bowl. Regardless of the origins of the name, ramen noodles are not produced the same as hand-pulled noodles. Attempting to hand pull a ramen noodle dough will result in some serious frustration.
In terms of definitions, then, ramen noodles must contain both of the following ingredients: wheat, and kansui (the alkaline salts). These requirements are non-negotiable; to sell a noodle under the name, “ramen” in Japan, it needs these two ingredients. Seriously, it’s the law, the Japanese government formally defines ramen this way. Udon, rice noodles, pasta, while all delicious, aren’t ramen, and the contents of this chapter specifically refer to ramen. Despite what appears to be intense rigidity, you can incorporate plenty of complexity into ramen noodle making, like using additional additives, or playing with the amounts of wheat and kansui. But these two ingredients are pretty set in stone. All of the recipes in this book, therefore, contain both wheat and kansui.
Despite the ingredient list being small, the details of each ingredient contribute substantially to noodle quality. In this section, I’ll go over the science and importance of each of these ingredients.
Wheat flour is the primary source of starch and protein in all ramen noodles and is a requirement for ramen to exist. This isn’t just for definition either. Both starch and protein (gluten) in the flour play vital roles in the design of a noodle.
Wheat starch provides the majority of the structure to the noodle. If noodles could be compared to a brick house, think of the starches as the bricks themselves. They do all of the heavy lifting. As starch is introduced to water, it hydrates, taking on the water and swelling, resisting compression and tension. In close enough proximity with other starch granules, the starch gels, forming a tight network of tough macromolecules that bump into each other. This starch gel has a pleasant texture, particularly if the gel is uniform (more on how to achieve this in the method section of this chapter).
The other component is gluten. Wheat gluten, in particular, is composed of two proteins; gliadin and glutenin. When water is added to flour and the flour is agitated (mixing, kneading, stretching, etc.) these two proteins combine by a chemical reaction known as crosslinking to form an elastic mesh, known as gluten. Gluten, in the brick house analogy, is the mortar, gluing the load-bearing starches together in a matrix of protein. Those air bubbles you see in bread? They were trapped by a gluten reinforced starch matrix. Without gluten, noodles, let alone most wheat-based foods, would have a very different appearance. Different levels of protein in the flour change how much or how little gluten develops in the noodle.
Gluten’s structure allows the starches to gel properly, gives the noodles additional tensile strength, and also gives them more water repulsive, or hydrophobic, properties. Extremely developed gluten dramatically increases the cooking time of noodles as a result, and results in firm, difficult to work with noodles.
Other components of flour that impact ramen noodles are:
Note: protein percentage doesn’t completely predict how readily gluten will form (all other things equal), as different cultivars of wheat can create different protein compositions. Some wheat varietals form more or less gluten than others because their composition of gliadin and glutenin isn’t equal. So, protein makeup can be different between varieties even if the protein percentage is identical. For example, a hard red winter wheat flour may have the same protein percentage as a hard red spring wheat, but the hard red winter wheat will develop gluten more readily because its composition permits it.
As you get more accustomed to making noodles, it’s a good idea to consider the above components when selecting which flour you’d like to use. But to start, keep it simple; bread flour works very well. I like to use King Arthur bread flour because the protein content is around 12.7% the weight of the flour, and the flour gives consistent results. Most of the recipes for noodles in this book will use this flour. As you get more comfortable, feel free to adjust flours.
Kansui is a catchall term for the alkaline salts used to increase the pH of the water, which affects the gluten structure in the noodle5. Food scientists don’t quite understand why gluten’s structure is impacted by the pH of the environment it’s in, but from an empirical standpoint, the effect is well known. As alkaline (or higher pH) environments are introduced, gluten’s rigidity and tensile strength increases6, leading to noodles that need more force to snap, but also aren’t able to stretch as much. Kansui, therefore, contributes to the difficulty in making noodles, as the alkaline environment may make the noodles more difficult to roll and press. Kansui also aids in changing the color of the dough from white to slightly yellow, as the alkaline environment causes unique compounds in the flour called “flavonoids” to detach, turning yellow5. Yellow color and brightness of noodles have been shown to increase with higher pH, however introducing pHs that are too high may compromise the noodle quality by making them tough and less enjoyable7. Kansui also gives ramen noodles their characteristic taste, a sort of eggy, slightly sulphuric flavor (which sounds off-putting, I know, but it works).
Kansui can refer to several different salts. In American kitchens, the most common salts are sodium carbonate and potassium carbonate. While these might sound intimidating, they’re pretty easy to get, particularly sodium carbonate. Apart from buying sodium carbonate under the name, “soda ash”, you can make sodium carbonate at home. The same method also applies to potassium carbonate. The full method I use goes as follows:
Ingredients:
Steps:
What’s happening here: The heat causes the bicarbonate to become carbonate, water, and CO2, where the latter two evaporate off while the cation (sodium or potassium) is nonreactive. The gas you’re seeing is mostly water like you’d see when boiling water, except it’s being created by a chemical reaction, not just by adding heat to water. Eventually this stops and the texture changes once all of the bicarbonate is converted.
Conversely, Harold McGee discussed creating sodium carbonate in the oven, baking the powder on a sheet tray at 121 °C/250 °F for an hour5. This method takes longer and is harder to judge when it is complete, but can be effective.
Sodium carbonate and potassium carbonate have different effects on the dough at a subtle level. In my experience:
Both affect gluten’s structure, but in different ways. Though this interaction isn’t very well understood (much like how we don’t quite know why pH impacts gluten’s rigidity), I spoke with Dr. Eric Schulze, the Senior Scientist at Memphis Meats on the matter. Here’s what he guesses might be the reason for this effect:
“Flour with removed cations hydrates rapidly, so the gluten network forms rapidly too. The potassium ions, being more reactive than sodium ions, would then proceed to further “protect” the gluten network from other negative charges, allowing for it to scrunch up tight and stiff.”
In other words, potassium does a better job of latching on to gluten molecules than sodium. This is JUST a possibility, not proven beyond evidence from my kitchen and some discussion from manufacturers. But the rule seems to apply: If you want a less firm noodle, use more sodium, if you want a more firm noodle, use more potassium.
Kansui can be found in both liquid and dry forms. To me, dry is both easier to use and easier to come by. It also gives you flexibility in adjusting the alkaline content without having to fiddle with how much water you need to add. Basically, it makes the math easier. I don’t have to do algebra to understand the relative water content of the liquid alkaline solution. I simply add a weight percentage to the ingredients. My all-purpose sweet spot is to use around 1-2% the weight of the flour in the recipe, but your taste may differ, and changes in hydration or flour type may warrant different kansui amounts.
Pretty much all noodles use water, and ramen noodles are no exception. Water is the basis by which flour becomes dough. But, there’s a small problem. Most tap water in the United States is loaded with dissolved minerals (i.e. it’s considered “hard”). These minerals impact the dough’s ability to hydrate and can impact pH adjustment. For ultimate control, use distilled water when making the dough. Some manufacturers, like Sun Noodle, use pure water in their processing for this very reason8.
Ramen noodles are distinct from other doughs in that the amount of water added to them (described as the “hydration” or “hydration percentage”), is noticeably low. In most ramen applications, hydration spans anywhere from 22% to 42% the weight of the dry flour solids. By contrast, most bread doughs start at about 60% hydration. This means that the treatment of the dough is noticeably different (and I’ll discuss this more thoroughly when I cover the methods) because the dough is much more difficult to work with.
What does water actually hydrate then? Other resources discuss this in more detail if you want to go down the rabbit hole9, but I’ll only mention the most important ones here.
Broad effects that water has on the dough as hydration increases include:
Broadly, as noodles become thicker, hydration increases, and as noodles become thinner, hydration decreases. Yamato10 provided a summary of this relationship, and it’s worth a look. In their opinion, thicker noodles tend to have more water, and less protein, while thinner noodles tend to have less water, and more protein.
I also mentioned earlier that flour is hygroscopic, and therefore also has moisture. Despite being “dry,” all flour contains some small amount of water. And that isn’t surprising. Water has a high affinity for lots of different compounds. It’s often nearly impossible to scrub all of the water from plant and animal products, and flour is particularly finicky. This can make things tricky too. Flour’s water content differs significantly by season and geography. Dry climates have less water readily available in the atmosphere for flour to absorb, while humid climates have more water in the air. In most baking, this distinction isn’t very noticeable, but in ramen making, because the amount of water you add to the dough is precise, every percentage point matters. Of course, an easy way to limit variability is by storing your flour in a cool, dry, place, limiting its exposure to air. But, if you find yourself making a lot of baked goods (and hopefully noodles!), a good rule of thumb is to increase the hydration of the dough by 1-2 percentage points more than you would normally. All that considered, if you find your dough still isn’t quite coming together, and you’re making more than one portion of dough, add a few additional grams of water. Won’t hurt.
salt: That’s right, good old sodium chloride. Salt performs a similar, but different, function to alkaline salts on the structure of the dough. Sodium ions from the salt help the gluten retain rigidity, prevent overhydration, and increase your ability to mix the dough without over-developing gluten11. Sodium carbonate would also contribute to this by providing sodium, but because it’s alkaline, it serves a different chemical function. Salt also adds flavor to the dough. In all recipes I use, I add 1% the weight of the flour/dry solids in salt.
egg white: The albumen of egg whites contains a mixture of protein that denatures (that is, the protein changes shape and physically weaves with other albumen molecules to form a sturdy matrix). These proteins only denature under intense shearing (like whipping with a whisk) or through heat (like when cooking an egg in a pan). Technically the action between these two examples is different, but the main point is that egg white protein is harder to link up than gluten via physical agitation.
Egg whites, therefore, help with the texture of the noodle by providing some chewiness, but without creating elasticity when raw. Egg white also increases the cooking time of the noodle, as egg white absorbs additional energy when it undergoes denaturation. For ultimate control, I prefer powdered egg white, since the amount here is consistent, but you can also use fresh egg white, you just need to adjust the water in your dough accordingly. Egg white is made up of around 90% water, so using the weight of the egg white, decrease your water by 90% of the weight of your egg white. Assume the 10% is the weight of the solids.
additional gluten (in the form of vital wheat gluten): While vital wheat gluten (that is, gluten isolated from the wheat) isn’t quite the same as the gluten found naturally in flour, it can still provide extra structure. For really chewy noodles, I prefer to add some form of gluten, in addition to using high-gluten flour, to get the total gluten content even higher in the dough. Most vital wheat gluten is approximately 75% protein, so I make my substitutions accordingly. (Adding 1 g adds 0.75 g of protein).
yellow food coloring (typically riboflavin or gardenia based pigment): Although kansui does change the color of the dough somewhat, for more color I add a food dye. Riboflavin in trace amounts dissolved in the water amps up that yellow color. Several manufacturers use riboflavin as a dye to change the color of their noodles, and you can see this on the back of the packaging as part of the ingredients. You can use other dyes (some manufacturers use gardenia-derived dye), but this is pretty much optional. If you want extra color, this is the way to go.
tapioca starch: Much like gluten and egg white, some ramen manufacturers add tapioca starch to their dry ingredients. I find the texture to be more snappy than chewy, so I tend to avoid using it. But some shops rely heavily on tapioca starch, especially shops in Kitakata. I find that no more than 10% replacement of flour is acceptable.
rice flour: Rice flour is an interesting addition in that it increases slipperiness on the palate, due to the amylose rice naturally contains. I find that no more than 10% replacement of flour is acceptable.
flavor enhancements: Some shops will add flavoring agents directly to the noodle dough, such as spices or powders. Green tea, chili powder, cumin, there are many options for creativity. This book doesn’t give specific recipes for these, but in general, an addition of 1% or less is usually sufficient to enhance the flavor of the noodle without changing its texture or workability.
adjunct grains: some noodle makers opt to add various grains to introduce new flavors. Whole wheat, rye, and buckwheat are all options, though spelt and ancient grains can also be additions, depending on the chef’s creativity. Ivan Ramen is famous for using rye in particular. In general, these grains inhibit gluten formation and can be detrimental to the final structure of the noodle. I opt for no more than 10% replacement of flour with these additions for this reason. You may be noticing a pattern here.
malt: traditionally in bread baking, some amount of malted barley is added to the flour to promote rapid fermentation; the malt provides readily available sugars that yeast can munch away on. As a result, some flours, particularly bread flours, include specific amounts of malt to be used during fermentation. This has less of an impact on ramen, which is not fermented, but the resulting noodle can have a slight slippery quality (like rice flour imparts) due to the higher amylose content. Malt also gives the noodles a tanner appearance. I personally wouldn’t add malt directly to the flour, but you can buy higher malt flours if you like the effect this provides.
Having said all of that, the ratios you use for these ingredients can greatly impact the noodle. An adjustment of 1-2 percentage points in weight can have a measurable impact, something I’ve found when comparing results done with different types of flour, water, and kansui. Precision is important in the noodle-making process. As mentioned earlier, a scale is really important for accurate ramen noodle-making. All noodle recipes in this book will use weight measurement. While other recipes in this book will contain weights of some kind, they’re much more flexible in interpretation, but noodle making probably needs the scale the most. Unlike measuring cups and tablespoons, the amount of error here is reduced dramatically when using a scale. Factors like how airy your flour is (was it sifted before? Has it been sitting around awhile?) can change how much a “cup” of flour is. Don’t believe me? Measure out a cup of flour, then tap the cup on a table a few times. Notice how the cup of flour sinks below the lip of the cup? What you measured can differ dramatically based on how you fill the cup. Also, the regulation on cup size is extremely loose. A volumetric cup can be up to ±12% in size. So even your different measuring cups may give you different amounts of flour from person to person. By contrast, 100 g of flour weighed today, or next week, will consistently be the same amount of flour.
Finally, there is no combination of ingredients that works for every noodle. As an example, noodle thickness can also dictate how much gluten you want to develop. Thicker noodles with a lot of gluten can end up being overly chewy and incapable of cooking fully. Gluten also increases the cooking time of the noodle, which may be problematic for thicker noodles. This can be a process of trial and error. To save on time, I’ve adjusted the noodle recipes according to my preferences.
Lastly, I would be remiss to say that the Yamato group has done an extensive amount of research on the effects of pressing, cutting technique, and aging of noodles and their scientific approach has shed new light on many of the topics above. Their content is always worth having a look12.
Now that we know the main ingredients, how do you combine them to make noodles? The methods are almost if not just as important as the ingredient selection.
To illustrate the method, we’ll start by going over the primary steps.
The following process is derived from several methods I’ve seen, both from professional manufacturers as well as from other amateurs. For noodles with high hydration (above 36% the weight of the flour being used), this method works quite well.
As a side note, as of this writing, I’ve yet to be able to make a noodle consistently with hydration below 36% at home. Industrial manufacturers in Japan can buy specialty flours that are milled finer, which can absorb less water and can purchase expensive presses that can apply a very large amount of pressure to the dough. Home cooks rarely have access to this kind of flour or technology. For the sake of the recipes in this book, all hydration amounts will be 36% or more.
Before we even do any form of mixing, we need to get our ingredients in order. I like to combine all of my ingredients into two separate mixes.
“dry” ingredients:
“wet” ingredients:
Weigh out and combine the dry ingredients, either in the bowl of a stand mixer with the paddle attachment, or a food processor with the processing blade.
In a separate vessel, weigh out your water.
There is a particular way I add other wet ingredients to the water:
Once you’ve combined the wet and the dry, you’re ready to start making the dough!
Unlike with Italian pasta, ramen dough is pretty low in hydration. This means it is of the utmost importance that the flour is hydrated evenly, so that the dough comes together easily later on, particularly for the home cook. If you’re making the dough by hand or using a standing mixer, splitting the addition of water into parts will help assure that the dough is evenly hydrated.
In a vessel like a bowl or standing mixer, mix the dry ingredients for around 30 seconds to aerate them and make sure the dry ingredients are combined thoroughly. For me, this is “stir” on the standing mixer.
While the mixer is running on this lowest speed, add around 2/3rds of the wet ingredients in a slow and even stream. At first, it’s going to look clumpy, messy, and uneven. But stir for around 3 minutes, it’ll start to combine into a sandy texture. Sand is good. Sand is great.
Once the dough has that sandy, even texture, you can add your remaining liquid. As done before, I like to add the remaining liquid in a slow even stream.
At this stage, let the mixer run, but keep an eye on the time. If you mix too much, the gluten will be so active that the dough won’t come together easily. So I like to mix for no more than a minute. As the mixer runs, the dough will start clumping together. This clumping will also essentially knead the dough clumps as they spin in the mixer, quickly building dense balls of dough. Once the wet and dry are fully mixed, you’ll have a crumbly mess of dough, it will be unlikely to come into a cohesive ball of dough. Folks call this “soboro,” a term meaning “shreds” or “clumps.” That’s ok; ramen dough is crumbly by nature. It doesn’t have a lot of water. 1 to 2-inch pieces for most doughs is a good sign. To compensate, we need to go to the next phase.
You’ve added a bunch of water to a dry starch, spun it around, and developed some stringy gluten. You’ve also incorporated air into the mix by tossing around the starch and water. Now you have to stop doing anything. Leave the dough alone. Don’t touch it.
I know, it seems counterintuitive. But this is absolutely required.
Cover the mixing vessel with plastic wrap, or store the dough in an airtight container, and leave it on the counter for a while. At least 30 minutes. Sometimes an hour. If you’re short on time, you can stick it in the fridge and leave it there overnight.
Why?
Resting has several major benefits:
It’s critical either way. Rest your dough!
Taking the crumbly dough, it’s time to do the first pressing. Get a batch you can handle and press into a thick sheet you can eventually stuff into a pasta machine.
You should have a pasta machine for this. As mentioned earlier, ramen comes from heavy industrial processing, with massive rollers. We don’t have this, but we do have pasta machines!
Some manufacturers, like Sun and Yamato, suggest pressing by no more than 30% of the previous thickness. So if your initial dough thickness is 2 millimeters, you should decrease the thickness by no more than 0.6 millimeters per pass. I’m not at all sure where this number comes from, but your pasta machine likely has these ranges built-in. Don’t sweat it.
Take the thick sheet, and roll it through your widest setting. Press it between the rollers if you need to. It’s going to look ragged and terrible. Don’t worry about it, just try to keep it together. Roll out to the 2nd, and then the 3rd largest setting one by one.
At this stage, fold the dough over itself, and run it through the 2nd largest setting. This is called “compound pressing,” and essentially gives you more bang for your buck. You’ll then repeat this process another time, folding in half, and then running the dough through the largest setting.
The dough needs to go through the machine in the same direction. Folding should always happen through the middle width of the sheet. The reason for this is that, in this rolling technique, you’re aligning the gluten to run horizontally through the sheet of the dough. You’ll notice this effect as you roll, the dough will have white lines running lengthwise as your dough rolls and becomes more cohesive.
This adjustment of the gluten network means that, upon eating the noodles, your teeth bite perpendicularly to the gluten network, rather than along with it. Much like biting into a steak that’s cut with the grain, the dough will feel considerably chewier and more robust. This structure also has the benefit of helping make sure that the starches gel closely together.
Alternatively, for doughs with more water, you can also throw the dough into a plastic bag and step on it a bunch but… that always felt a little too crude for me. Some shops do this believe it or not. But the goal here is to develop gluten fully, get the starches to connect nicely and to have something you can roll out into noodles.
Remember how I said gluten is really active when you press it? Well, you just made it even more active. You also probably incorporated some small air bubbles. So cover the sheets of dough with plastic and rest them for 30 minutes. This will make it easier to roll and cut later on. For those who have made pasta before, this should be familiar.
Take your sheets, and starting with the largest setting, roll out setting by setting to your desired thickness. Dust the sheets with cornstarch or potato starch as needed, and then, when the dough is to your thickness liking, cut lengthwise into noodles. I use a noodle cutter attachment, but you can also cut by hand if you like that rustic flair.
Once the noodles are cut, you can do one of two things before storing:
Some shops will do the kneading right before cooking. I can only hypothesize that the kneading immediately before cooking causes the gluten to become active, resulting in more rigidity and slower cook time when the noodle is finally cooked. When kneading right after cutting, but not before usage, the method is primarily to change the appearance of the noodle.
Ok, so you have beautiful, cut, perfect noodles. Time to eat?
Not so fast! These noodles need time! Sensing a pattern here?
Maturation is the final phase of ramen noodle making, and it’s extremely helpful for developing ramen. In this final resting phase, the noodles… sit around. And as a result, some final effects on the dough occur:
Different noodles need to mature for different amounts of time. Generally though, the more water you have in the dough, the longer the noodles should mature. A good starting point is at least 24 hours for any noodle, but experiment as you get comfortable with noodle making.
Some manufacturers will mature their final cut noodles at room temperature, which rapidly improves the quality of the starch network. In the fridge, the starch gel is much firmer than at room temperature, so the starch gel takes longer to effectively collapse and become dense when cold. Essentially, the room temperature approach is a rapid, faster method. It is a quintessential technique of Sapporo style noodles. However, you need to be careful; at room temperature, there’s a possibility for pathogen growth. Noodles with an appropriate level of alkalinity, or preservatives like alcohol or sorbitol, can withstand room temperature better.
While refrigerated, noodles keep for several weeks. For long term storage, noodles can be kept in the freezer for easily 6 months with no reduction in quality.
For these recipes, I’ll be using the standing mixer approach, which is my favorite. But you can also do them by hand or with a food processor.
This is a good, all-purpose noodle, usable in many different ramen applications. You can cut it with a standard 1.5 mm cutter, or thinner. It can be crinkly or straight. It works with most soups. It’s also relatively easy to make compared to other styles.
Ingredients (per portion):
Steps:
This is a modification on the Tokyo style noodle, using rice flour to achieve additional slipperiness and texture. Suited well for Shoyu style broths.
Ingredients (per portion):
Steps:
Jiro noodles are defined by a few main characteristics that are highly unorthodox for ramen making:
Ingredients (makes a small portion, multiply as needed):
Steps:
This is my favorite noodle (because I’m a Sapporo ramen nerd). The key is to make sure it rests aptly during mixing, and in the fridge. I like them after at least two days in the fridge, but you can go much longer.
Ingredients (per portion):
Steps:
These are “makeshift” because most Hakata style noodles are very low hydration (<30%), something most home cooks can’t do. But they’ll still have some similarity to the real deal; they’re very toothsome and cook quite quickly. These noodles are particularly hard to make, so try them out once you’re more comfortable with a Tokyo approach.
Ingredients (per portion):
Steps:
This style of ramen is meant to be put together extremely quickly, with noodles being cooked almost as soon as they’re cut. As a result, the hydration is high, and the kansui amount is high, while also being primarily sodium, allowing for the dough to be noticeably extensible. Additional tapioca is used to help provide structure in the event you want to cook the noodles immediately.
Ingredients (per portion):
Steps:
The Akayu noodle is distinct for being ultra thick, plush but firm, and crinkled, in large part due to the high water content. The dough itself is marvelously easy to put together, and results in tender, wriggly noodles, great for thicker soups.
Ingredients (per portion):
Steps:
This recipe is an attempt at replicating the noodle made by Sakai Seimen for Iekei style noodles, most notably those served at Yoshimuraya, but at countless other spinoffs. They are denoted by being “reverse cut,” or cut using a cutter notably thinner than the thickness of the dough. In this instance, a cutter with 1.5mm gaps, but with a dough thickness of 2mm. This recipe was designed for professional noodle machines (I use a Yamato at the restaurant), so it may be difficult to attempt at home.
Ingredients (per portion):
Steps:
This noodle uses a bit of whole wheat flour in addition to standard white flour. This whole wheat accomplishes a few things:
Ingredients (per portion):
Steps:
This noodle uses different flours to achieve a unique, slightly translucent appearance. It pairs well with lighter broths.
Ingredients:
Steps:
This noodle, based on the Higashi Ikebukuro Taishoken style of tsukemen, has an almost soft, light noodle. Higashi Ikebukuro is the originator of the tsukemen style of ramen. I won’t get into the history of the dish in full (there are much better scholars on the dish), but It’s meant to be very delicate in contrast to a lighter, slightly vinegary broth. Whole egg in the noodle helps add some tenderness via the yolk (their original recipe, somehow claims to add one whole egg for every 300 portions, I’ve opted for slightly more here). So this recipe is essentially designed for a thinner, more tender noodle. A 200 gram portion is not difficult to eat.
One note: because these noodles are meant to be on the softer side, they do not age well. Aging the noodle results in a denser, firmer texture, which is distinctly counter to the result you want. If you make these noodles, they’ll be good for only about 24 hours in the fridge.
Ingredients:
Steps:
The Tapioca in this tsukemen noodle gives the resulting noodle an interesting bounce and helps it maintain a straight shape, due to lower gluten development.
Ingredients:
Steps:
Mazesoba noodles, or noodles used for dishes that don’t contain soup, can contain a variety of different approaches. But the broad theory of them is that they actually need less structural integrity, because they don’t sit in soup. We supplement this in this recipe by borrowing from Italian pasta ideas, namely, using a lower protein flour, and an increased egg content. All purpose flour is suitable here because the egg provides more structure than in a standard ramen dough, and makes the dough relatively easier to work with. Using egg yolk as part of the ingredients further tenderizes the dough, as fat prohibits some gluten formation, making this dough even easier to work with. And since the egg content is high here, the noodles are resilient in cooking, the egg white helping reduce overcooking potential.
Ingredients (per portion):
Steps:
Within ramen, there are two routes a soup can go. It can either be made from fresh meat products that require long cooking times, or dried fish products that require short cooking times. Each of these soups on their own has various applications.
Ramen is, historically, a meat-based dish. Chinese cooks were making meat soups in the early 20th century and, depending on your historical source, some number of industrious Japanese business owners adapted those soups to local tastes by adding soy sauce to the final dish. Meat and ramen are quintessential pairs, it’s hard to imagine ramen’s popularity without meat-based soup.
So the focus of this chapter will be primarily on meat-based soups, though fish-based soups are discussed later. When I refer to soup in this chapter, I specifically mean one that uses some amount of animal bones or tissue to achieve its flavor and viscosity.
Soup often seems like an extremely complex part of the process. The soup lore is astounding, with some shops cooking their soup in big vats for years, continuously adding new bones and water. There are stories of tonkotsu shops that boil their soup for over 40 hours. Some chefs meticulously monitor their soups, making sure the temperatures hover in each specific degree, no more no less. And none of this covers the recent growing popularity of other cooking techniques, like sous vide and pressure cooking, which can both be used in soup making (more on that later!).
But the reality is, soups are easy. Seriously. All soups made with meat products can be divided into two categories, and the method for making them is very straight forward, virtually all recipes you will find are simply variants of the methods we will describe.
The two categories of soups in ramen are:
There are endless variations on these two, but all soups (yep, all of them) fall into one of these two categories. Admittedly, it’s more like a continuum than a pure categorization, some soups are slightly cloudy, others less so. But this is all soup is.
In my experience, this means the variation by soup is rarely on technique and much more by ingredient selection. The process for meat soups, in almost all cases, goes as follows:
So, what happens when you make soup? Let's discuss in detail:
Connective tissue within an animal is made up of a molecule called, “collagen.” Collagen is a tight mesh protein that is not water-soluble that gives structure to this tissue. Virtually all animal meats contain collagen in varying proportions. Under normal circumstances, you wouldn’t want to eat collagen. It’s hard and pretty gross. Think gristle in your steak, as an example.
But when we introduce collagen to prolonged heat, it undergoes a chemical change where it effectively breaks down into gelatin. Gelatin, unlike collagen, is water-soluble. Through cooking pieces of meat with collagen in water, that collagen converts to gelatin and dissolves.
Items that are collagen-rich tend to be muscles and parts of the animal that serve multiple purposes: they can act as a barrier of some sort, need to move often, or connect different tissues together. Feet, bones, tendons, ligaments, skin, these items have loads of collagen. This does not mean you want to make a soup entirely from these ingredients; you can certainly have too much gelatin in your soup.
When gelatin dissolves into water, several things happen:
Cooks control the gelatin content of soup by cooking the bones/tissue for enough time to ensure full extraction and conversion, and by using the right amount of water. They also control the gelatin content by using an appropriate amount of ingredients that are high in collagen.
Essentially, if your soup feels too watery, reduce it or include more bones/connective tissue in subsequent cooks. And if it feels too thick, you can add water to it or increase the ratio of water to bones in subsequent cooks.
Myoglobin is a protein that gives muscle its red color. Unlike other proteins found in blood, myoglobin is water-soluble. You’ll notice when soaking bones, or when you first start cooking bones, that the water turns a pinkish-ish hue. That is myoglobin, not necessarily hemoglobin, the protein that gives blood its distinct color and the key oxygen transporting protein found in red blood cells. All bones and tissue in the animal parts contain some level of blood, so some hemoglobin will be there, but most of what you’re seeing is myoglobin.
As the temperature of the water increases, myoglobin denatures. This denatured version of myoglobin also has a tendency to link up with itself and other proteins. As the denatured myoglobin combines with other denatured proteins, they conveniently float to the top of the soup. Chefs call this mix of proteins “scum,” and often choose to skim it away.
So, you might be wondering, why do we skim the scum, and do we need to? Scum, as the name implies, is sort of gross looking. That seems like a pretty reasonable explanation, get rid of the gross stuff. But is it really all that gross? Maybe not. Most chefs I’ve spoken to suggest that keeping scum can lead to an off appearance, darkening the soup, and an off, almost metallic flavor. On the other hand, Daniel Gritzer at Serious Eats suggests that by leaving the scum, it improves the clarification of the final soup, as debris invariably gets trapped in the mesh of proteins floating on the surface14, and only minimally affects soup color.
In some applications, skimming the scum helps improve color. Over a long enough time, particularly in a scenario where the soup is boiling vigorously, the scum will turn brown and solubilize. For pork bones, you may wish to blanch or soak the bones overnight, to remove myoglobin before cooking, as these bones produce more myoglobin to skim than chicken parts.
I almost always skim the scum. It doesn’t take very long and, let's be honest, I have an eye for details. But there isn’t a hard and fast rule here.
Meat products contain fat, even in trace amounts. Animal fats melt at a temperature much lower than boiling, though the specific melting temperature depends on the fat in question. As the soup is cooked, rendered fat rises to the top of the water and stays there until it is skimmed off or emulsified. You can use this fat for later cooking purposes (see the Aroma Oil section), or discard. The fat rendered in the soup making process contains all of the fat-soluble flavor compounds extracted, so it has a markedly different flavor than a fat rendered on its own. You may or may not want this in the final bowl of ramen.
The primary purpose of cooking ingredients in water, aside from dissolving gelatin to improve the body, is to add flavor to the liquid. Animal tissue has a TON of trapped flavor. Flavor extraction from meat is directly related to the temperature and time on which it is held. As meat and bones cook, the protein within them denatures, squeezing out water and water-soluble flavor compounds, which then solubilize in the surrounding soup. For many of these compounds, the speed and quantity of this extraction increase with increasing temperature15. Chemical reaction speeds often increase with temperature, so this is not surprising.
Other aromatics, which generally refers to vegetables and herbs, also follow this rule. Aromatics, however, do not take as long to release their flavor into the liquid as meat-based ingredients do, as their cells usually break down faster under most cooking conditions. This is why onions and carrots are very soft after a few hours of cooking. Applying heat also creates new chemicals, or releases existing chemicals, that produce aromas. We can smell these aroma producing compounds only because they are volatile, evaporating from the soup over time. Aromatic compounds don’t really stop being released (otherwise what would you be able to smell?), and they continue to volatilize while the soup cooks. Unfortunately, those ingredients can only release so many aromatic compounds before they run out. Release too much of them, and you won’t have much left to enjoy in the soup. A soup with onions cooked for 6 hours will be far less oniony than one cooked for only an hour.
Depending on what you’d like your final soup to taste like, you can increase or decrease the aromatics’ cooking time accordingly. For brighter vegetable flavors, cook them in the soup for less, for muted ones, cook them more. For most applications, I’ve found that I sufficiently extract the aromatics’ flavor compounds into the soup after an hour, at 88-93 °C (190-200 °F), though chopping or dicing the aromatics into smaller pieces rapidly increases the speed in which your extraction occurs. I find large pieces, cooked in the soup for an hour, is sufficient (and my recipes will mention the size desired for the ingredients).
One additional comment on aromatics: garlic is a unique ingredient in that, depending on how the clove is prepared, the pungency of the flavor in the final soup changes12. As garlic’s cell walls are ruptured via crushing or cutting, an enzyme in garlic called “alliinase” is released, which converts alliin (the foundational flavor of garlic) into allicin. Allicin is the compound that gives garlic its sharp, sulfuric quality. Heat stops the activity of this enzyme, so you can effectively control the sharpness of the garlic’s flavor in your soup depending on the treatment of the cloves before adding them to the soup. Put in whole, the enzyme is pretty inactive, and so the garlic flavor in your soup will be much milder. Crushed with the heel of a knife, the clove experiences some enzymatic activity, and some sharpness will remain. If you completely obliterate the garlic into a paste, the flavor will be very sharp and intense. Getting the right amount of garlic punch can be tricky though, as it’s balanced by not only how it’s prepared, but how long it’s cooked. Much like I mentioned earlier, cooking aromatics like garlic for a long time causes many of their flavor compounds to volatilize, making them gone for good.
In western cooking, particularly in French methods, flavor generation also usually involves browning aromatics and meat first, then covering with water, allowing the browned flavor to permeate the liquid as it cooks. In ramen making, browning of aromatics and bones is extremely rare. To be honest, I don’t know why this is, but I feel that unbrowned soups tend to pair better with ramen noodles. As a matter of preference, browning could be okay as a part of your soup-making process. I just don’t personally do it.
Soup, therefore, represents one component used to create the flavor profile in ramen, primarily from water-soluble flavors. All done primarily through boiling. Soup might sound like it isn’t doing anything very important at first, but it is. Without soup, a lot of the potential water-soluble flavors produced by vegetables and meats would be completely absent.
Up until this point, I’ve been awfully quiet about the difference between the cloudy paitan and clear chintan soups. It’s all for a good reason, as there’s a simple but big difference: emulsification. What’s an emulsification, or an emulsion? Interestingly enough, Scott has some expertise on this. Emulsions are suspensions of two insoluble liquids. At least one of those liquids, sometimes called a “phase”, is suspended in the other as many teeny-tiny droplets. Making a stable emulsion is, funny enough, a science. You need the right compounds to keep the emulsion stable (and enough of them), as well as enough physical activity on the liquid to shred the insoluble liquid into small enough droplets. Scientists call this whole ripping thing “shearing.” How do you shear a fluid? Avoiding too much of the technicalities, you move it, usually in a container. The more you move it, the harder you shear it.
So what distinguishes our main two soup types? Paitans are emulsions, and chintans are not. That’s it. Does anything else, say, mineral content, bone granules, aromatics, pot size, and/or protein preparation matter? Nope, none of those explain why paitans are opaque. Only emulsified fat makes ramen soups cloudy. Why do fat droplets make soup cloudy? If you remember refraction from highschool physics, fat has a different refractive index than water. Put simply, light passes through it differently than water. Those globules refract light in all sorts of different directions than if the light were to just pass through water, which makes the soup cloudy.
Us ramen cooks use a bunch of tools to help emulsify fat into soup. We can add emulsifiers, compounds that promote oil in water emulsification, and we can shear it with the right tools and techniques. First, let’s talk about the most prominent emulsifier in ramen soups: gelatin.
Gelatin, as an emulsifier, is attracted to fat and water, so it kind of snuggles between the surface of the fat droplets and the water. Because it’s also a large protein, it pushes other fat droplets away. So, rather than combining, these globules of fat end up “bumping” off of each other or passing each other in the soup. Gelatin keeps the fat emulsified really well, so those droplets stay suspended for a long time. Which is awfully convenient. When we make soup, we extract gelatin from the animal parts. It’s already there for us.
But, when you want to make an emulsion, you need an emulsifier and enough shearing. Just extracting a bunch of gelatin and fat from meat in water won’t make an emulsion on its own. Shearing, as it turns out, is pretty simple, but you gotta put your elbow into it a little. Gelatin is a good emulsifier, but it's got limitations like everything else. To get really small droplets, we need to add some physical energy to the soup.
I’ve found two common methods work to get the droplets small enough:
Contrary to many recipes found online for paitans, you do not need to shear the cooking liquid for the entire duration of the cooking time. Gelatin, with enough shearing and fat, emulsifies very quickly (in as little as 30 seconds in a blender). And because gelatin is a strong emulsifier, it stays that way once it’s done.
Gelatin’s ability to emulsify fat and water is a double edged sword. A clear chintan will basically become a paitan if you accidentally boil it too aggressively. So if you want to make a very clear stock with no emulsified fat, I recommend holding the cooking temperature to around 88-91 °C/190-195 °F.
Although you might get enough gelatin from the animal parts, sometimes you don’t. Poorly emulsified soups, usually from a lack of gelatin, create a thick layer of fat on the surface of the soup, which congeals when cooling or sitting in the serving bowl.
And no extra shearing will be enough if you don’t have enough emulsifiers. Even a high quality blender, as aggressive as it is, won’t work if you don’t have enough emulsifiers. Instead, you have to add more emulsifiers, whatever those end up being. There are tons of these, from modernist ingredients like lecithin or gums that trap residual water, to simple ones, like starches and protein sources.
Now, you could just add more gelatin to the pot, like with powdered gelatin, but what about other emulsifiers? Perhaps the most readily available for most home cooks is white rice. Rice is great because it’s effective and doesn’t add flavor to the final dish. The method itself is simple: add a few tablespoons of rice to your soup an hour before blending. As the rice cooks, it releases starch, which traps residual fat globules and helps suspend them in the water-based soup. Blending any starch-containing vegetable can yield similar results. Potato is another common addition, though the flavor is more noticeable.
Protein slurries, such as blended meat scraps, can also provide similar emulsification. Tenkaippin, a Japanese ramen shop chain, uses a technique where they take cooked, shredded, chicken thigh meat, and blend it into the soup until it’s viscous and emulsified. The tsukemen recipe listed here uses this technique.
Maybe you’re unsure if you’ve reached the desired amount of emulsification and gelatin extraction. Fear not, you can measure the quantity of gelatin in your soup via a few methods and tweak the results from there:
I prefer the first approach, simply because I like to cook in the moment. But if I'm feeling particularly scientific, below are some Brix levels I like to hit, based on the type of soup I’m making. This is all personal preference:
Soup Use Case | Chintan/Paitan | Brix |
Sapporo Miso | Chintan | 2 |
Tokyo Shoyu | Chintan | 4 |
Chintan for Double Soup | Chintan | 5 |
Tonkotsu | Paitan | 6-8 |
Chicken Paitan | Paitan | 6 |
Tsukemen | Paitan | 11+ |
You’ll notice that the paitans above have a higher Brix than the chintans. That’s intentional. By keeping the Brix low, we don’t have to worry about making the soups accidentally emulsify a ton of fat for chintans, so it helps with clarity. But when we want lots of emulsified fat, we need enough gelatin for the job.
For soups, cooks most often use a large stockpot to hold the contents, completely cover them with water, and cook everything over a burner at the desired temperature until the soup is complete. Traditionally, chintan soups are delicately simmered, while paitans are rapidly boiled (at some point or for the entire cooking process), both for long periods of time. In most restaurants, cooks usually use either approach. Making soup in large quantities is a not-so-trivial endeavor, and these methods work for making lots of soup.
Using the knowledge mentioned earlier and this little bit of information, you can start making soup. However, you can use some alternative approaches to make either chintans or paitans, especially if you’re a home cook.
Sous vide is a relatively new and exciting option for some soup applications, as the precise temperature controls ensure a very specific extraction. Particularly for dashi, where some chefs demand specific temperatures, sous vide can be useful. But this comes with some limitations. Namely, wand-style circulators are not designed to circulate soup, only water. Circulating soup can damage the device. Other temperature-controlled technologies, such as thermometer assisted induction cooktops, can also work, but the equipment can either be expensive (like the Breville Control Freak, currently $1,50016), or inaccurate. But they are intriguing.
Sous vide is very useful for a lot of other components in ramen, not just soup. I’ll describe how this technique can be useful for those applications later in this book. While all of the recipes that use sous vide here will have the details you need to get cooking, you can improve your ramen making abilities, as well as your general culinary skills with some background knowledge. You can find plenty of great resources just by looking through the internet. However, in my opinion, the best source of fundamental info on sous vide can be found in Douglas Baldwin’s book, “Sous Vide for the Home Cook17.” Baldwin is a friend and former colleague of Scott’s, so there is just a tinge of bias, but seriously it’s absolutely worth a read. Baldwin’s website is also packed with useful information18.
Recently, pressure cookers have become popular recently, and that’s particularly true in the ramen scene. I use a pressure cooker in almost all of my soup making. Pressure cookers build pressure in a vessel by trapping the water vapor that is created during boiling. As pressure rises in the pot, the boiling point of the water also increases, and as this boiling point increases, the contents within the pot cook faster. Most pressure cookers hit around 15 psi of pressure or about one additional bar, increasing the boiling point to 121 °C/250 °F. According to a rule of thumb, that amount of additional pressure and temperature decreases cooking time by around 8-fold. That’s quite the time savings.
Many ramen purists profess dogma against pressure cooking due to the speed in which soups can be completed in them. Shops that would slave away at a tonkotsu all day can now complete these soups in a matter of hours. In my experience, soups made in a pressure cooker are indistinguishable from those made on the stovetop. I won’t say they’re perfectly identical, they probably aren’t. But I’m not sure if the difference is all that big.
Pressure cooker substitution approach: For recipes in this book, you’ll need to replace the time spent cooking the meat before adding aromatics with a reduced time under pressure. Pressure cookers release pressure two ways, either through opening a valve and venting, which is called a fast release, or by allowing the soup to cool with limited venting, called a natural/slow release. Fast release introduces a negligible amount of extra cooking time, but this isn’t true during a slow release. If using a natural/slow pressure release, the time spent during the release needs to be included in the total cooking time, even though it isn’t as impactful to the cooking time as the cooking time under pressure. This might sound complicated, but I’ve used a simple relationship between normal cook time, time under pressure, and the pressure release time to produce consistent results:
The release time depends on the manufacturer of the pressure cooker and can be anywhere from 30 minutes to an hour. You’ll need to experiment with your pressure cooker to figure this out, but I assume that 30 minutes is pretty standard. Using the formula is otherwise pretty simple. For instance, a soup that takes 8 hours to cook takes 1 hour to cook under pressure using a fast release, or 45 minutes under pressure with a 30-minute natural release. This works well for both stovetop models and electric models. Although electric models hold slightly less pressure than stovetop models, I’ve found similar results using both.
Pressure cooking is a great alternative to making soup via traditional stovetop methods, if only from the time savings. But, there’s a caveat; you still have to consider accidental emulsification. Pressure cookers can create emulsions differently than through traditional stovetop methods in two ways:
In some instances, such as with paitans, you want to create an emulsion. So the general rule of thumb is, for chintan soups, a natural release is preferred over a fast release. For paitans, a fast release can jumpstart the emulsion.
Once the soup is complete, you need to hold it hot or chill it thoroughly and quickly. Soups are protein-rich aqueous solutions that bacteria absolutely love, and can become prime places for pathogen growth. If the soup sits in what the FDA calls “the danger zone” or a temperature between 5 and 60 °C (41 to 140 °F), bacteria have the opportunity to grow. During cooking, you’ll be far above 60 °C, but eventually, you’ll need to cool the soup, and it will cross into this threshold as it cools. If you’re only making small batches of soup, this isn’t usually a problem, but for large volumes, cooling the soup fast enough requires some extra thought.
Modeling how the heat is removed from a container of soup relies on a lot of factors, including the material the pot is made out of, the size of the pot, and the amount of liquid in the pot, how the pot is covered, the surface it’s sitting on, etc. Even with all of those differences, we can find some good strategies to cool soups quickly with a little science. Newton’s law of cooling helps with this understanding as an approximation of what’s going on, and is described by the following equation:
No need to pull out the textbooks for this equation, we won’t be solving it for soup! You just need to know what the equation means. First, let’s define the variables. The left side of the equation represents the rate of heat transfer from the soup to the environment. Meanwhile, on the right side of the equation, h is the heat transfer coefficient (a property affected by the materials used), A is the surface area, T(t) is the temperature of the soup over time, and Tenv is the temperature of the environment. Looking at this equation, we get a few important concepts.
Once the soup cools completely, it’s ready for use after reheating. So far, I’ve found virtually no loss in quality after the soup has been reheated. You can keep soups for up to a week in the fridge, or up to 6 months in the freezer.
In general, bird bones are more porous than those of other land animals, and thus they require less cooking. Below is a generalized time table for making soups.
Ingredient | Stovetop (At 88 °C/190 °F or higher) | Pressure Cooker (at full pressure, 15 psi, assuming 10 quarts max capacity) |
Chicken (whole, backs, feet, all chicken) | 6 hours | 45 minutes (or 30 minutes with 30-minute natural release) |
Pork neck bones | 8 hours | 1 hour (or 45 minutes with 30-minute natural release) |
Pork femur bones | 18 hours | Up to 2 hours |
Fish | 1 hour | 10 minutes |
Before we dive into styles of soup, there’s a critical soup component that needs a little more detail and needs to be made ahead of time. Ramen chefs often add liberal quantities of this ingredient to their soups, and that is also true for the recipes in this book. I’m talking about that subtle but umami amplifying stock, used in all sorts of other Japanese soups, dashi.
Dashi is a cornerstone of Japanese cooking and it would be a disservice to not mention it in some capacity in this book. The term “dashi” is often used as a catchall term in modern Japanese for soup, but most typically refers to a soup made from kombu and dried fish products. An entire book could be written on dashi. In fact, Heston Blumenthal already wrote one20. Dashi has been the subject of intense discussion, debate, and research, due to its importance to the Japanese culinary arts, and it’s remarkable ability to add a meaty flavor to food.
Ajinomoto, a prominent supplier of ingredients used in cooking, suggests that dashi was the inspiration for the discovery of umami, and in turn, almost everything else that produces umami (which I’ll cover in the tare section more fully). Chef and food scientists alike spout all sorts of specific temperatures, times, and approaches on how to extract the most umami and flavor from core ingredients, but they’re inconsistent. One study by Mouritsen et al. showed that holding kombu in water at a temperature of around 60 °C/140 °F for 45 minutes extracted the same amount of umami producing compounds as boiling the kombu21. Others claim that soft water improves the extraction22, while Mouritsen et al. did not show that this was true. David Arnold’s work with kombu suggests that steeping kombu in cold water before cooking using sous vide can also provide ample extraction of umami ingredients, though he used an operating temperature of 65 °C23. Other recipes, such as Ivan Orkin’s, insist on using 80 °C/176 °F as the optimal cooking temperature24.
This can be very confusing. Who’s right here? In general, I don’t fuss about the specifics, I think you can make good quality dashi even with tap water. Still, excessive heat impacts the final result considerably, so I try to avoid boiling dashi ingredients. Much like tea, extremely high temperatures can extract unwanted flavors from these ingredients, and it’s best to err on the side of caution (even if Mouritsen et al. are correct). But I don’t think you need to constantly monitor the temperature, especially when you’re using it for ramen.
Dashi can be added to soup, but I find that it’s easier to add the ingredients used in dashi to soup directly. The ingredients used in dashi add fantastic complexity to ramen. Katsuobushi is smoky, niboshi is fishy and pungent, clams are briny and sweet, and kombu is oceanic. For simplicity, I often just add these ingredients at the end of the cook, much like with other aromatics. By the time these ingredients are added, the soup is no longer boiling and it’s at an appropriate temperature for most extractions. Still, you’ll have to play around with what works for you.
Alternatively, if you’d like to add dashi to soup, rather than adding just the ingredients, below are a few dashi recipes. They are by no means exhaustive (again, dashi is inherently complex stuff with many variations). Dashi can also be used to thin out thick soups in a pinch or will be used as part of the soup technique known as “double soup” (more on this one later).
This is an all-purpose dashi. If you’re not sure where to start, this is a safe bet. It’s simple but versatile.
Some variants of dashi also suggest an overnight soak before cooking can increase the amount of flavor extracted. To do this, simply combine the kombu (and niboshi or shiitake, if using) and water, and place in the fridge for 12-24 hours before cooking. Then proceed with step 2.
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Dashi degrades quickly in flavor, so it only keeps for a few days in the fridge if you decide to make it in advance. Luckily, it’s relatively simple to put together.
Clam in ramen is becoming more popular and this is a simple soup that can be combined with others to create complexity. This dashi is clam forward, containing only 3 ingredients, but some additional steps are needed to treat the clams appropriately. This dashi can also have dashi elements like katsuobushi or niboshi steeped in it after it is complete, should you choose to do so. If you’d like to use the clams for eating after, you’ll need to remove the grit from them first (see the first steps of this recipe).
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Much like the previous dashi, this only keeps for a few days in the fridge should you choose to make it in advance.
This idea is blatantly ripped off from David Chang and Peter Meehan’s cookbook, “Momofuku: a Cookbook25.” I won’t even pretend to have come up with the idea. It’s excellent for those who struggle to find Japanese ingredients, the bacon providing smoke and umami in place of katsuobushi.
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These dashi recipes will pop up on occasion in the next soups. But onto the main methods for Chintan and Paitan.
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From this framework, you can make a host of different soups. Want a beef soup with caramelized onions? Cook the beef bones for 8 hours, then toss in those onions at the last hour. Want a super fishy, really rich, but clear chicken soup? Cook the chicken parts, being sure to include some feet, for 6 hours, adding in dashi elements like bushi products or niboshi, at the last hour.
Below are some common recipes I use for chintan, depending on need.
This recipe is a combination of chicken and dashi elements. It’s simple and effective with many different ramen tares.
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This recipe combines chicken and pork products to produce a more round amino acid profile. Lighter in body, this soup is excellent in Miso, it’s also good with shoyu applications. I like to blanch the pork neck bones to remove some of the myoglobin and preserve clarity, but this is optional.
Should you desire, you can also use all chicken backs, or all pork bones, for this recipe.
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This recipe is very similar to the doubutsu kei soup mentioned before, but excludes the ginger and pork, making this an overarchingly all-purpose soup, even in non-ramen applications.
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The new wave of shoyu ramen emerging in Tokyo is based on a very specific trend of using only chicken, and nothing else. The method is effectively the same as other chintan applications.
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This recipe is derived from a video I found some time ago showing some of the ratios used at Eifukucho Taishoken, a legendary ramen shop in Tokyo, one of the oldest continually operating shops in Japan, and is in general indicative of old-school ramen from Tokyo, heavy with pork and fish products. They focus on a fish-forward soup, with lots of vegetables, and a relatively low quantity of pork. The soup is simple to produce but maddeningly complex. Of note, the final soup is noticeably murky, but this isn’t a bug, it’s a feature. Old school soups are not as clear as modern interpretations.
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Note: This soup is unique in that, due to the extremely high quantity of fish, a lower salinity tare, or less tare overall, is preferable. As an example, for 350 ml soup, I would use only 22 ml of the new wave tare.
This recipe is in fact similar to the Eifukucho Taishoken recipe, in that the shop comes from the early 60s. You’ll notice similarities in method across older shops, that they use a higher ratio of water to bones, and heavily dump in fish products to provide umami. This soup is specifically meant to be paired with other Akayu recipes (please see the appendix for details), the aromatics pair nicely with a miso tare.
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I have been asked on some occasions to develop vegan and vegetarian options for ramen. Understandable of course, as these are reasonable dietary restrictions. However, vegetarian soups run into a few challenges, notably, they lack viscosity and umami. We can control for umami by including Kombu and Shiitake, which gives glutamic acid guanylic acid, but viscosity is difficult. This soup has a wonderful perfume, but is distinctly light in texture, so it pairs best with a tare that amplifies viscosity, like a Miso tare, or a Tantanmen tare.
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The only major difference between the paitan and the chintan method is the rate of boil needed to emulsify the fat. And even this isn’t necessary if you’d like to use a blender, the churning action of the rapid boil isn’t required.
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Virtually all paitans in this book will follow this approach. The last step, in particular, is noteworthy because it is unorthodox, and typically only conducted in a home setting. You could theoretically emulsify all of the soup with all the fat, resulting in something not unlike milk or cream. You may not want this level of emulsification. Ultimately you as the cook decide how far you’d like the emulsion to go.
Below are some specific recipes I use regularly.
Tonkotsu is a paitan of pork bones. This is the basic tonkotsu approach that most restaurants essentially use. You may find in your research that some restaurants add in new bones midway through cooking, or use different bones like heads or ribs, but overall, the method is effectively the same: cook bones to death, and emulsify everything.
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In my desire to stop having to skim and manage scum and funk in tonkotsu, I opted to try roasting all of the bones in the ingredient bill. The resulting broth is slightly darker, but with a blend, it turns quite creamy regardless.
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Iekei, a style of ramen invented in Yokohama, is a sort of hodgepodge of tonkotsu and shoyu ramens. The soup is a blend of chicken and pork parts. At Akahoshi, we pushed the pork more forward, but some shops go evenly. In the traditional method, raw bones are added throughout the cooking process, but I found this difficult to achieve, so I just add them in the normal stages. The final soup isn’t as emulsified as others, but that comes down to personal preference; different iekei shops have different levels of emulsification. Unlike other tonkotsu approaches, this one leans into the funk of the bones, so no blanching or soaking is required.
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The soup that I enjoy In Jiro is a mix between a paitan and a chintan, but feel free to make it really clear, or really emulsified, the process is the same both ways, you'll just finish it differently. Critical to the success of this dish is the method of cooking the chashu and fat in the soup directly, an old school technique that provides additional flavor to the final soup.
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This is a riff on tonkotsu that incorporates fish elements. Packed with umami, it’s also decadently rich.
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A simpler approach for making a creamy soup at home, chicken paitan is full-bodied and rich in chicken flavor.
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Despite the name, this style specifically refers to the color of the soup, which is a greyish/greenish hue. The color comes from blending in whole niboshi and niboshi powder before straining, a slightly unorthodox but effective technique for adding additional flavors. This is a popular but admittedly polarizing style, heavy on fish notes, and can be daunting. But the soup is a fish lover’s delight. The blended fish helps to stabilize the emulsion.
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Unlike previously mentioned paitan soups, this soup blends essentially all ingredients together to create an extremely thick and rich soup, similar to a gravy.
This soup is extremely difficult to make, so I’ve included a recipe specifically for a pressure cooker. Like all soups, you can choose to make it via the stovetop, but you’ll need to multiply the cook times in steps 3 and 7 by 8.
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The final yield is around 2.5 L, which is around 10 generous servings.
Most of the recipes shown were done in one pot, or don’t remove any impurities beyond skimming and straining. Sometimes you may want to combine flavors from two differently cooked products, or you may want to further clarify the soup. I’ll discuss techniques for both interests next.
Around the turn of the 2000s, a relatively new method of combining separate soups just before serving emerged, called the “double soup” method. This approach is unique in that it takes essentially two soups that have been cooked separately, and combines them.
The theory behind this technique is that by cooking different ingredients separately, and then combining, you have more control over the specific outcomes of each part. A vegetable soup can be cooked at a specific temperature and time, a meat soup at different conditions, a dashi at different conditions, etc. Then they’re chilled and combined once reheated. The main consideration for any cook with this approach is just dilution. When combining dashi with meat soup, as an example, the amount of water dramatically increases, reducing final gelatin content. This also grants a cook a lot of control if they’ve prepared a lot of parts to work with.
Consider the following example:
The above soup declines in Brix due to the dilution from the dashi. This can be compensated for by increasing the relative gelatin content of the Chicken Soup, either by reducing the amount of water used or increasing the amount of chicken. But this may not be possible if the water doesn’t cover the bones. At home, this is mitigated easily by just combining all ingredients in one pot. So this tends to be my approach:
In my opinion, the double soup method is better suited for restaurants than home cooks, primarily because it allows for separation of complex tasks in a busy kitchen, and to help scale down the volume of soup made. Rather than making a 40-quart singular pot, a restaurant can make multiple smaller batches of concentrated soup, which are then easier to strain, and can be held cold, combined when needed. The soup is then diluted accordingly. A home cook may not have this problem (unless they’re eating a lot of ramen of course!).
In some instances, you may accidentally over boil the soup and create some emulsification you didn't originally anticipate or desire, or you may wish for your soup to be even clearer than what you’ve wound up with. Clarification is the process of removing those emulsified components and in turn, making the soup clear again.
Clarification as a technique in ramen is rare, most likely due to the amount of effort required at the volume most shops need and the relatively low payoff for doing so. The level of clarity achieved through clarifying is extremely high, almost to the point of the soup being alarmingly crystal clear. However, the process can also remove some flavor compounds, and most guests will still respect a “very” clear soup vs one that is completely clear. Visually though, completely clear soup is definitely appealing.
The easiest method is the “raft” method, which uses a combination of egg whites and ground meat to create a floating raft on the surface of the liquid. As the soup boils, it rises and falls through the raft, and the network of coagulated proteins traps globules of fat and debris, clarifying the stock. The negative of this approach, as mentioned earlier, is that it can flavor the soup. Some methods use acidifying agents to improve the clarification, but again, this will add further flavor to the soup.
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Ultimately, while this approach results in a great, clear soup, it falls into the role of diminishing returns in my opinion. Most ramen soups are not this clear. Don’t sweat it.
Tare is the secret sauce of ramen, and I’d argue it’s more important than soup. Tare (pronounced “tah-reh”) means “dipping sauce” in Japanese, but it’s a lot more than just sauce in the ramen world. It’s, well, secret sauce!
Seriously, tare is extremely secretive, so much so that most chefs hide their ramen making secrets in their tare. I know a few chefs who still make all of the tare themselves, just to prevent their cooks from ripping off their recipes. This has given tare an illustrious reputation, something that is coveted and difficult to replicate. Many chefs, troubled by the perceived complexity and depth to tare, don’t even bother making it, opting to purchase tares from third-party manufacturers instead. And all of this is unknown to customers, and even some cooks in the same shops are left out of these details. Layers and layers of secrecy. It’s sort of like BBQ sauce, in that a pitmaster may take an immense amount of pride in their sauce, or they might doctor up some Sweet Baby Rays.
Tare provides three things to ramen, all of which are important:
Each of these will be discussed in depth as part of this chapter. But tare is probably the biggest fundamental difference between ramen and other soup techniques: mainly, the separation of seasoning and soup cooking until the final assembly of the dish.
Much of this is because it provides flexibility to a ramen shop. The business model makes this approach more accessible since one soup can become multiple dishes with different tares, which, due to their salt level, are often stable in the fridge for many weeks/months/years. At home, this may be less of a concern, but I like to keep tares and soups separate until serving for the same reason shops do; it gives me incredible flexibility. A chicken soup can become a fish bomb with the right tare. But if you only have a fishy chicken soup, that’s all it will ever be.
Much like in cooking in general, it’s easier to add than it is to take away. And tare is the ultimate foundational method to accomplish this. I would argue that tare is, single-handedly, the most important thing you can focus on as a ramen cook. Tare radically changes the flavor of the dish.
The main function of tare is to season the soup. Before the addition of tare, a ramen broth has essentially no salt (as you’ve seen in the soup chapter, none of these recipes contain any salt).
I hear this comment often from those starting their ramen journey. They’ve spent the last 18 hours boiling away a tonkotsu, and when they try the soup, they are immensely disappointed. It’s bland. It has no flavor. It’s decidedly boring. It might even be gross.
99% of the time, this is because it has no salt.
I cannot stress how important this is. THE SOUP NEEDS SALT. Which is what tare is for. Without salt, this soup is just not going to be very good.
Now, I could go and tell you that an optimal addition of salt is 1.5% the volume of the broth in grams (so for 350 mL of broth, add enough tare to make the total bowl be 1.5% salt, meaning most tare falls into 10-20% salt by weight), but the truth is, this is entirely down to taste. Some folks like a salty punch in each sip of the broth, others like a bowl with a little more subtlety. Only you can decide. For finished bowls, I’ve included recommended tare amounts (in either weight or volume depending on the tare style), but ultimately your palate guides the experience here. Taste, adjust as needed, see what works for you.
As a side note, I want you to ignore anything you might have heard about specific types of salt. Tare is normally a liquid or paste, which means that the salt’s crystal size or shape doesn’t affect the flavor. And since the salt comprises a small amount of the total bowl, the salt’s additional minerals aren’t going to affect flavor. Those shops that tout using five different salts in their tare? It’s mostly marketing. But the addition of salt as an ingredient is immensely important for ramen, let alone cooking in general. And tare is the primary way salt is added to ramen.
Tare provides flavor, no question. Tares are chock full of intensely flavored ingredients. Kombu, shiitake, soy sauce, miso, these are not subtle ingredients, they can massively adjust the way a dish feels when you eat it. So tares are flavor bombs. If you’ve ever tried a tare, you’ve undoubtedly noticed that it is complex and contains a wealth of flavor. That is 100% intentional.
However, it’s also worth noting that, like other aromatics used in soup, many of the foundational tare ingredients contain flavor compounds that also volatilize when exposed to heat over prolonged periods. Should these ingredients be included in the soup initially, they would effectively “cook out” and their flavor would be diminished. By separating the tare from the soup, you can effectively control the degree of intensity of your seasoning ingredients. This, again, is noticeably different from western soup, where seasoning agents are generally added early in the process.
In the introduction, I suggested that you could also add umami to ramen by adding tare. While the meat-based soups described in this book provide some umami, tare increases the umami way more than anything else in ramen. There are two ways that ingredients can provide umami: through the addition of glutamic acid directly or the addition of ingredients with “synergistic nucleotides” that improve the sensation of glutamic acid on the palate. We’ll cover each.
Glutamic acid is what your tongue tastes when you taste “umami”. It pops up in a lot of ingredients like parmesan cheese, tomatoes, and grilled meats. Ajinomoto’s Umami Information Center has put together lists of glutamic acid-rich ingredients26 should you wish to explore further. Including these ingredients in your tare will increase the amount of glutamic acid in your final dish, and therefore umami.
In ramen, the commonly used ingredients that contain glutamic acid are soy sauce, kombu, and miso. These are all used extensively in tare (and indeed, I include them in several recipes). There are other ingredients of course that include glutamic acid, and much of the modern ramen making thought involves pushing the content of glutamic acid forward.
But we can cheat a little beyond just using natural umami sources. Tare can also improve the umami of ramen because it’s where the addition of a certain infamous ingredient happens, that ingredient being MSG. Monosodium glutamate. The beast itself. MSG and ramen go hand in hand, and often shops brag about not using it, because of how rare a lack of MSG actually is. If you’ve eaten ramen in Japan, you’ve probably had MSG. Much like how salt is often necessary for food to taste good, MSG can play an important role in elevating a dish by providing glutamate.
I have no problem with MSG. I love MSG actually. In small amounts, it greatly increases the savory characteristics of dishes, amplifies flavors, and makes ramen taste more cohesive. It also can help balance off-flavors, which is why most Tonkotsu shops in Kyushu rely heavily on MSG in their ramen.
But if you want to challenge the use of MSG because of health risks, then I need to be a little more critical. Beyond the fear being rooted in a controversial history associated with slander against Chinese restaurants, the science behind the public outcry is bad. I worked pretty intensively with Scott on the science behind what’s actually going on, and it can be technical, so bear with me. First, glutamate is a naturally occurring amino acid we make and use in our bodies. It’s found in most animal products and many fermentation products, like soy sauce, are also loaded with it. What happens to glutamate when we eat it? Our bodies consume glutamate through typical cellular metabolism. Specifically, glutamate is converted to alpha-ketoglutarate by an enzyme known as glutamate dehydrogenase. I won't go much more into the biochemistry, all you need to know is that alpha-ketoglutarate acts as an essential compound found in cellular metabolism that all of our cells use to stay alive. I find it hard to believe that most glutamate sources, given that they feed right into normal metabolism, would be much of a risk to our health.
The most critical position I’ve seen suggests MSG can cause headaches, but how this relates to the quantity of MSG consumed is ambiguous, and most of the cases are anecdotal. With some more investigation, these claims fall apart. Scientific studies suggest that there is no strong correlation between headaches and MSG27. Ultimately, there is nothing remarkable about the glutamate in MSG, and certainly sodium isn’t dangerous, so I don’t think using a little MSG here and there poses any significant problems.
Now, I don’t think MSG is required to make ramen. Much like other individual staple ingredients, if the ramen is bad without MSG, adding MSG probably isn’t going to make your bowl of ramen incredible. To make a good bowl of ramen, your tare needs complexity in the form of interesting flavors and aromas that compliment each other well. MSG can be a part of that equation, among many other variables, but the extra umami you add still needs to work with everything else. So I sometimes include MSG in my tare. MSG can help make food delicious, and my goal is always first and foremost to make delicious ramen.
You can also improve umami with ingredients that contain compounds called synergistic nucleotides. These compounds don’t directly add glutamate, but they still provide or increase umami. There are a bunch of these nucleotides28, far more than I’ll cover here. Synergy is important here, in that when synergistic nucleotides are combined with glutamates, they increase the sensation of umami more than they would independently. When it comes to taste synergies, 1 + 1 = 3, or at least it can appear that way. How much umami boosting is possible? Well, one study determined that the intensity for tasting glutamic acid increased by nearly 8-fold when the synergistic nucleotide inosine monophosphate (IMP) was added at an equal weight percent with MSG29.
These nucleotides aren’t artificial either, all sorts of foods have them. IMP, for instance, is found in seafood (particularly niboshi and katsuobushi), chicken, and pork. Another synergistic nucleotide, Guanosine monophosphate (GMP), is commonly found in tomatoes and mushrooms. Older ramen cooks were using these compounds to their benefit, they just didn’t know it. Japanese chefs essentially stumbled upon the combination of synergistic nucleotides and glutamic acid through trial, error, and good luck by developing dashi. For instance, they found that combining kombu with bonito created a soup that was exceptionally full of umami. In these soups, the IMP in the bonito and glutamate in the kombu are extracted in dashi.
Modern ramen chefs, many in direct response to glutamate’s ancient use and the newfound scientific research, are now actively seeking out ingredients with high amounts of both glutamate and these nucleotides for the ultimate umami blast in their tares. This is especially true for shio tares, which only use salt as the core source of the tare’s salinity. These tares tend to have fish products high in glutamate and synergistic nucleotides. For a more in-depth view of umami that expands on these ideas, I recommend the book, Umami, Unlocking the Secrets of the Fifth Taste30.
Now, to clarify, I do not think these ingredients are required for tare, or ramen in general. Much like the use of MSG, they are simply a tool in your ramen arsenal, but are in no way mandatory. The goal first and foremost is to understand the impact your ingredients have on the final dish. Ultimately, as you begin to make more ramen, you’ll understand what you like and don’t like in your dishes, and can adjust accordingly.
Admittedly, and perhaps confusingly, tare making has other gray areas. Some shops blend tares. Some shops make a shio tare, but use soy sauce in it. Is that really a shoyu? Who knows! These are just terms to help explain the style of a tare. And style is just a framework to help understand complex concepts, you can ultimately make a tare however you like as long as it provides salinity and umami.
Tare exists on a continuum in terms of its presence, and how you use the tare will depend on the final bowl you’re trying to make. Tares can act as the focal point of the soup, bringing in lots of complexity and character, or they can provide more subtle enhancements to the soup by adding mostly salt and umami. Which side of the spectrum you’d like to use in your tare is up to you. You may want an intense, soy-sauce punch of flavor in your ramen. You may be more interested in subtle aromatics. As you build your tare making knowledge and skills, you can start to more creatively design your tare around these preferences.
The three core tares and some example recipes are listed next.
Shoyu, or soy sauce, is the oldest style of tare. Ramen doesn’t exist without this one, because the origins of ramen lie in Japanese cooks re-imagining Chinese soups with local tastes in mind. It was the late 19th century in Japan, and meat was rarely consumed by locals. You have an influx of immigrants, many Chinese, who cooked meat-based dishes. According to Slurp! A Social and Culinary History of Ramen, the story goes that Japanese cooks, put off by the smell of meat and garlic found in these foreign soups, wanted to adopt these Chinese noodle soups for a more local audience1. To temper those unfamiliar and unsavory meat scents, they used soy sauce—and thus the first iteration of ramen was born.
There are many variants of shoyu tare because often it is the most multi-purpose seasoning. Typically I follow a baseline ratio of:
I enjoy doing a cold soak with the umami ingredients to extract as much flavor as possible from them. The tare needs punch, so a prolonged steep is helpful in my experience.
If you’d like something less soy-forward, simply swap the soy sauce with some amount of water, and add salt. For every 20 g of soy sauce you remove, add 1-2 g salt (depending on preferences). This assumes Soy sauce is around 14% salt by weight.
Sake and sugar can be added to further provide complexity and sweetness, but the idea, in my opinion, is to find a template you enjoy for your tare, and stick with it when designing new recipes. Adjusting too many variables can result in difficulty in understanding what works and what does not.
This is an all-purpose shoyu tare. Great for light chicken broths, it also works well to make shoyu tonkotsu or other shoyu-forward recipes. Make it, keep it in the fridge for months, and use it when you feel like having a clean bowl.
Ingredients:
Steps:
Add 30 mL of tare per 350 mL soup.
This is a variant on the Standard Shoyu Tare. For those who like those caramelized, fish forward flavors, this is a good option, as the rapid heating of the niboshi here amplifies their flavor in the final tare.
Ingredients:
Steps:
Add 35 mL of tare per 350 mL soup.
New wave shoyu tare style primarily focuses on soy sauce as the flavoring of the dish, and should therefore include exceptionally high-quality soy sauce. Look for soy sauces that are traditionally made. Producers of cheaper soy sauces often incorporate additional processes (thermal, chemical, or mechanical) to assist in breaking down the beans and wheat, which speeds up production. Although the fermentation process is faster, these additional processes also prevent other secondary flavors from being produced that otherwise appear in traditional methods. Those secondary flavors are, well, pretty good, so we want them. Some soy sauces are fermented in wooden barrels, adding complexity not found in more inert fermentation vessels like glass or stainless steel. When in doubt, look for Japanese soy sauces, or soy sauces made with “marudaizu” (i.e. whole beans). These soy sauces undergo longer fermentation times and therefore have additional complexity.
Ingredients:
Steps:
Add around 35 mL of tare per 300 mL soup.
When you want to keep the color of the broth lighter in appearance, use this tare. It uses a light soy sauce (usukuchi soy sauce) in place of more commonly found dark soy sauce. It isn’t as bold as a standard shoyu tare, but it has delicious subtle flavor elements and the color is lighter.
Ingredients:
Steps:
Add 30 mL of tare per 350 mL soup.
Iekei styles of ramen are notoriously simple tonkotsu shoyu variants that push into the flavor of the cooked soy sauce. The approach can be used in the same way as the “Easy Meat Shoyu Tare,” where chashu is soaked in it, but at Akahoshi, we liked to just keep it as is. It’s really just fortified soy sauce.
Ingredients:
Steps:
Add 30 mL of tare per 350 mL soup.
For a vegan option, this variant is nice. The mushrooms contain guanylate, which helps improve the sensation of umami on the palate. A small addition of tamari helps round out the richness of the mushroom flavor, but is otherwise optional.
Ingredients:
Steps:
Add 35 mL of tare per 350 mL soup.
This recipe is derived from “Toyama Black” style ramen. The original technique popularized in the region involves boiling down soy sauce until it is heavily concentrated, and then adding copious quantities of this sauce to the soup to season it. The problem with this style of tare is that it is intensely salty; too salty for most folks to drink on their own, which is why Toyama Black ramen is often accompanied by rice. This recipe accommodates this by using soy sauces that are overtly black in color from the get go, avoiding issues with balance. Resulting soups are intensely pigmented but complex. Look for Chinese soy sauces that are syrupy and deeply colored. Is this a heavily processed, artificial tare? Absolutely. But so are most tares, frankly.
Ingredients:
Steps:
Add 35 mL of tare per 300 mL soup.
Jiro ramen uses a pretty simple tare, where they take some cut of pork that is cooked in the broth and soak it in a sauce that eventually turns into tare. The meat seasons and can be used as chashu, and the sauce extracts some of the pork flavor while becoming the tare. I love this approach, even for shoyu, although the tare is a little sweet, so much that it isn’t as applicable to other bowls. But this approach is super convenient.
Ingredients:
Steps:
Add 45 mL of tare per 300 mL soup.
This recipe comes from Shichisai, who uses extremely high-quality soy sauce that you or I probably don’t have. Just use the best soy sauce you can buy, and blend accordingly. The steps itself are incredibly simple, but this tare is less flavor-forward than other shoyu tares due to the boil and additional salt content.
Ingredients:
Steps:
Add 30 mL of tare per 300 mL soup.
I developed this recipe as part of a popup with Flat and Point. I don’t expect anyone to make it, but I’m documenting it here on the off chance you have a smoker and want to give it a shot.
Ingredients:
Steps:
Add 30 mL of tare per 300 mL soup.
In the desire to remove some of the common Japanese ingredients from ramen, I decided to swap katsuobushi with bacon. The bacon dashi provides smoke and some fermented tang but does not provide inosinic acid, so some additional MSG can help.
Ingredients:
Steps:
Add 30 mL of tare per 300 mL soup.
This is a recipe I played with on and off before my first popup at Ramen Lab. The team I worked with wanted something unique in addition to spicy. It has moderate heat, but complex chili flavors. It works excellently with chicken broth, or in tsukemen variants, but it’s a weird one for sure. The ingredient list may seem daunting but the process overall is quite simple.
Ingredients:
Steps:
Add 30g of tare per 350 mL soup, adding an additional 20 mL of soy sauce to the bottom of the bowl.
Shio, meaning salt, is a salt-based sauce, which is meant to be more about amplifying the existing flavors of the soup than contributing other flavors. Since the base soup is unseasoned, this tare acts more as a backdrop, adding saltiness and complexity. It often contains a host of dried fish products and blends of different salt. It also, oddly enough, can contain small traces of soy sauce. Again… what are the rules even in ramen?
Shio tare is also the most difficult tare to make, given its ingredients bill. But there are alternatives. Much like the shoyu template, I find a bare-bones idea (shown below) is helpful when thinking about designing your shio tare.
This template works for virtually all tares. It gives you a tare with umami and salt because it uses salt and MSG, and nothing else. On its own it adds minimal complexity; we want to highlight the qualities of the soup with shio tare, not add to it, afterall. But the tare also follows a few principles I like to make ramen by. Notably, you can use approximately 10% salt in your tare, and 6% ingredients containing glutamic acid. All shio tares can be built around these ratios.
Ingredients:
Steps:
Add 30 mL of tare per 300 mL soup.
For some additional complexity, this tare uses kombu for flavor, as well as a few other sources of subtle aromatics. Sake contains trace amounts of glutamate, adding to the umami profile, as well as a variety of other aromatics as a result of the brewing process.
Ingredients:
Steps:
Add 30 mL of tare per 300 mL soup.
This recipe is heavily adapted from a shio recipe I found some time ago in a tare book31. It’s nice, very sake and wine forward, which you may or may not like. Good for particularly chicken-forward soups, but not bad in a tonkotsu either.
Ingredients:
Steps:
Add 30 mL of tare per 350 mL soup.
As mentioned earlier, some shio tare recipes contain soy sauce. There’s no way I could leave you hanging, so this is one of them. It’s effectively a blend of many tares listed above, making it a great all-purpose tare for creamy soups and light soups alike.
Ingredients:
Steps:
Add 30 mL of tare per 300 mL soup.
Arguably the originators of the shio style, Hakodate shops tend to lean into seafood’s flavor, as the city is a port town. This one uses dried scallop and dried shrimp, but niboshi or bushi is also common. (Some of these values are rounded, as I came up with this original recipe at much larger scale as part of running my ramen shop).
Ingredients:
Steps:
Add 30 mL of tare per 300 mL soup.
Miso is the newest tare style. Miso is a common ingredient in Japan made from mashed legumes and grains (typically soybeans), plus koji, a fungus with enzymes that convert protein and starches in legumes into complex flavor compounds. Technically, miso can use any sort of protein-rich source (my friend Rich made miso once with ricotta cheese!). The use of miso in ramen originates from Sapporo in Hokkaido, the northernmost island of Japan, and was invented in the mid-1950s, in a small shop named Aji no Sanpei, whose chef fed hungry workers by adding noodles to a pork miso soup. Or so the lore goes.
It is my favorite style of tare, and the tare I have spent the most time on. In many ways, the following recipe is my most important one.
After more than 10 years of tweaking and experimenting with miso tare, here’s my take. It’s very miso forward. If you don’t like your miso so forward in the flavor of the final dish, you can cook the tare in a saucepan or wok for 5-10 minutes over medium heat. Doing so releases volatile compounds in the miso (of which there are many32).
Ingredients:
Steps:
Add 60-70 g of tare per 300 mL soup.
This recipe is a variant of the standard miso approach but uses additional ingredients to highlight the actual pepper flavor, rather than merely adding spice.
Ingredients:
Steps:
Add 70 g of tare per 350 mL soup.
The tare is a cooked miso tare, with a relatively low miso flavor as a result, the cooking process sending off volatile flavor compounds. The goal here is to cook out the alcohol, and most of the fruitiness of the miso. This is, ironically, much easier to do at home than it is in bigger quantity. So, yay for us home cooks!
Since the miso is cooked, feel free to buy sub-par miso for this. We’re not as much interested In nuanced miso complexity (like we are with my more standard Miso tare).
Ingredients:
Steps:
Add 60 g of tare per 300 mL soup.
Some tares don’t quite fall into the above categories, due to their ingredient composition. These alternatives are listed below.
Tantanmen, derived from dan dan noodles from China, is a sesame and spice based dish. This method is extremely simple, but feel free to incorporate other common ingredients, such as Sichuan pickles. Ironically, this tare rarely contains large quantities of umami-building ingredients, but it’s still delicious.
Ingredients (for one bowl):
Steps:
I had been tasked with designing a spicy ramen that didn’t pivot too directly into Miso flavors. Opting to use more Korean ingredients, the final tare has subtle pepper flavors and good heat, without overwhelming the specific flavor of the soup you’re using.
Ingredients:
Steps:
Add 45 ml of tare per 300 mL soup.
I developed this recipe as a special in February 2024 for Akahoshi Ramen. Loosely based on a video I stumbled upon from NHK, it uses a combination of spices and vegetables to promote thickening and flavor. This makes a large amount of tare (easily 30 portions), so scale down as needed.
Ingredients:
Spices:
Vegetables:
Steps:
Add 60 ccs of tare to 350 ml of soup in a pot. Bring to a vigorous boil before serving.
Toppings, like with many other components of ramen, depend on the goal of the dish. Toppings can enhance the existing flavors in the dish or contrast with them. They can provide textural contrast or can easily blend into the soup, providing additional flavor notes. We can imagine that topics have a ton of versatility if they can fit so many different characteristics. And because they can be so diverse, there’s plenty of room for innovation and experimentation. In this chapter, we’ll cover a handful of common toppings used in ramen, as well as ingredients and steps to make them.
But, still, there is SO much variation in toppings. You can go an infinite number of directions based on your taste. Much like with everything else in ramen, there’s a lot of room to explore, get creative, and make the bowl yours. So this chapter will focus on some staples, mainly the proteins, or technique-specific toppings that aren’t obvious to the home cook.
Steeped eggs are probably the most loved part of ramen in the US. Often more than the noodles and soup, Americans love a soft-cooked egg with just a bit of seasoning, the yolk, gooey and liquid, spilling into the broth, with a firm, fully cooked white. Stuff of legends.
There are generally two approaches to soft boiled eggs, but they begin with the same starting point: an egg with fully cooked whites, and typically liquid but creamy yolks (though some shops also create fully cooked eggs).
The history of eggs as a ramen topping is sort of bizarre; legend has it that they were originally a snack food given out at shops before the dish itself. Someone must have figured out that one could combine the two instead of separating them because the pairing works really well. Different shops name them different things based on preparation and customs, but for the sake of simplicity we’ll just call them “Eggs”.
There’s a way to predict just how quickly the egg will season, but the math behind it is rigorous. Even Scott was scratching his head for a little bit (and still is). Luckily, the final formula is pretty simple. The length of the diffusion layer for a three-dimensional object is described by:
Here, L is the depth of the diffusion layer, D is the diffusion coefficient (in m2/s), and t is the time (in seconds). In this case, D is a material property of the egg, the solution, and the temperature, which is best determined by experiment. The important takeaway is that time is related to the square of the seasoning’s distance into the egg. This means that a full cure will take longer than you might intuitively think. If it takes 1 hour for the brine to penetrate the egg white 1 mm, it will take 4 hours to penetrate 2 mm, and 9 hours to penetrate just 3 mm. This means that it can be pretty difficult to overseason the egg unless your brine is particularly salty, and that brining is often an exercise in waiting more than careful timing.
Now, where do we start? First, you gotta make some soft-boiled eggs. Here’s my go-to technique.
Ingredients:
Steps:
Once you have your soft boiled eggs, there are a few approaches to finalizing them:
Okay, I lied, not all methods will involve steeping. Soft boiled eggs are delicious in their own right, and it’s not unheard of for shops to include just a plain ol’ unsteeped egg. You can slice them in half and float them on the soup, exposing their gloriously liquid yolk to all. Or you can keep them whole, and let them bob on the surface ready to be broken into with chopsticks, the yolk gushing out to the delight of the consumer as the egg white is broken. Either/or works.
Naturally, these eggs aren’t seasoned. If you want to add to the flavor profile, the next options will accomplish that. In keeping with common approaches in egg seasoning, both steeping methods involve a brine, but the difference between each method depends on the proportions of seasoning used and timing.
This is the generally accepted approach for eggs in most Japanese kitchens. It’s simple and doesn’t require a lot of precision. Just be sure to pull the eggs out after 4-6 hours to avoid over-saturating them in the brine.
Ingredients:
So for 300 mL of brine, use 100 mL of each ingredient. How much brine you want to make is totally up to you.
Steps:
You can tell based on the detail here that I like, but don’t love, this method. So what do I prefer?
Equilibrium brining is a technique commonly used to flavor proteins like chicken or pork33. However, few cooks, if anyone, have used this method for eggs, and the technique’s results are very effective.
The technique treats the brine as the general flavor and salinity you want your brined item to be, not more or less. Like the previous method, diffusion is still involved. In that technique, eventually everything will reach equilibrium, where no more seasoning is diffusing into the egg. However, the salt content is very high in that method’s brine, and that salt would not only overseason the egg at equilibrium but would destroy the proteins in the process, creating something far from delicious.
By contrast, this equilibrium method takes the guesswork out of knowing when to pull the eggs and creates a consistent edge to edge seasoned egg with no grainy yolks. And that’s reflected in the final egg’s appearance and taste. In this method, the egg white is uniformly seasoned throughout, and the yolk is lightly cured, firming into a clear and fully seasoned gel.
While this technique might seem more technical, it’s still simple. You just need a scale and patience. Based on my experimentation, these eggs will be perfect anywhere from 1 to 4 days after being placed in the brine with no loss in quality. The only real downside is that you have to wait around 1-4 days before they’ll be ready. Which… y’know… some of us don’t like to wait, I get it. Physics doesn’t make exceptions for any of us, unfortunately. Still, I think patience is a virtue, and these are delicious and easy.
Ingredients:
Steps:
Alongside eggs, chashu is perhaps the other most common topping for ramen. Chashu is almost always a slow-cooked, decadently tender slice of pork, usually from either the belly or the shoulder, but it can also be from the loin for leaner variants. There are several approaches to making chashu:
All of these techniques have their pros and cons:
Technique | Pros | Cons |
Cook in Soup |
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|
Braise in Tare |
|
|
Dry Roasting |
|
|
Sous Vide |
|
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How you finish the chashu is also a common point of contention. Searing, reheating, throwing the slices into the soup cold, you can do whatever you like with whatever combination you desire. It’ll probably be delicious no matter how you finish preparing the meat, but I recommend making sure the pieces you use are similar in size. That’ll make the presentation and cooking much more consistent.
Take your belly or shoulder, and toss it into your simmering/boiling broth. Tie it, keep it loose, whatever you like, just put it in your broth when it begins to bubble, and after you’ve skimmed any scum.
Then, cook in the broth until tender, anywhere from 2-3 hours. Remove the pork when you feel it is sufficiently cooked (for a melty piece of meat, I prefer around 203F, though anything above 190 F will be very tender), and place in the Easy Meat Shoyu Tare, and allow to soak in the fridge for 2-4 hours. This seasons the pork, your tare, AND adds porky goodness to your soup. It’s not complex, but some styles, like Jiro ramen, hinge on this approach. It can also be beneficial for tonkotsu, which needs fat and collagen to achieve the proper soup look and feel.
This is often how I make chashu. The pork is really tender, to the point that it actually becomes difficult to pick up with chopsticks, so if you’re into that extremely luscious texture, this method is for you. You can mix things up by adding green onion, ginger, garlic, or other aromatics to your braising liquid, but I’ve always kept it simple.
Ingredients:
Steps:
In some shops, the pork is hung in a small chimney like charcoal or gas grills until it is cooked. Despite the name “chashu” roughly referring to Chinese roast pork, the actual act of dry roasting chashu is relatively rare. But it can be delicious.
In dry roasting, some precaution needs to be taken into account to avoid over-cooking the meat. Unlike in a water-based cooking method, where the temperature never gets above boiling, dry roasting can quickly get portions of the meat past the temperature where connective tissue breaks down before the collagen has time to turn into gelatin, resulting in dry, chalky meat, that is essentially ruined.
To compensate, chashu needs to be roasted at a lower temperature for a very long time, upwards of 5-6 hours. Meat cooked this way is never tender the way a braised piece of meat is, but it has deep, intense, caramelized notes on the exterior of the meat.
The method is effectively the same for pork belly or shoulder. Use whichever cut you prefer.
Ingredients:
Steps:
Sous vide is an incredible tool for chashu. It allows you to produce meat that is both exceptionally tender, well structured, and gorgeously pink, while still being fully cooked and safe to eat. This is a fantastic way to make chashu, and most high-end shops are pivoting to this approach, because it allows them to cook with marvelous consistency.
It also allows you to store the pork in the bag well in advance before use. Simply remove the bag from the water bath, chill the bag in an ice bath, and then reserve in the fridge. This pork should keep well for several weeks, provided you keep it in the vacuum-sealed bag, as the pork itself will be pasteurized and won’t be exposed to oxygen.
The cooking liquid is practically identical to what was used in the braising recipe.
Ingredients:
Steps:
Now, you can select many temperatures and times based on preference. I like chashu to be pretty melty, but still with some structure so that it doesn’t fall apart in the chopsticks, so I sous vide at a relatively high temperature. Others may prefer a more steak-like, or firm chashu. Lower temperatures (say, 68 °C/155 °F) for a longer period (24-36 hours) will give a more steaky texture if that’s what you’re looking for.
In the past 10 years, chashu has evolved to be more than simply cooked pork shoulder.
Techniques like sous vide have rapidly improved our ability to cook and eat pork products in unique and often otherwise impossible ways. Chefs in Japan use sous vide to cook pieces of pork until they are just barely cooked, around 57 °C/135 °F or so, then chilling thoroughly before slicing. Hence the name “rare” chashu. It’s legit rare pork, taking on the color of something like rare roast beef.
I’ve found, admittedly, that this concept is pretty hard for most Americans to get behind, especially with American pork. The texture is somewhere between steak-like and ham, and the color is very pink, which some Americans would say is undercooked. That doesn’t mean it’s unsafe though. The odds of getting trichinosis, the main pathogen in undercooked pork, is very low 34. The CDC reports less than 20 cases yearly, in large part due to extensive safety precautions taken by meat manufacturers, effectively eliminating it as a safety measure. The USDA as a result has lowered the required temperature of pork products to 63 °C/145 °F. Realistically you can probably go lower, and to get rare chashu, a lower temperature is required. Just as a reminder, food safety relies on temperature and exposure time. Sous vide allows for control of both with maximum precision, leading to fully cooked pieces of pork that are, well, unusual to the uninitiated.
Texture-wise, it’s a completely different product than what’s normally used as a topping; the well-done pork I described earlier. It needs to be thinly sliced to account for the lack of collagen breakdown. And it can quickly go from pink to grey if it sits in the hot soup for too long, as the pork effectively cooks more. Rare chashu also often uses different cuts of pork than more traditional chashu. Unlike well-done chashu, which uses belly or a standard shoulder roast, rare chashu most often uses a specific cut of the shoulder typically called the “coppa.” In the world of BBQ, this cut is called, “the tubes.” Other names include the CT Butt, the top of the shoulder, or even the so-called “pork neck” muscle. No matter the name, this is a section of the shoulder that runs the furthest from the large bone you typically find in a pork shoulder and is heavily marbled with fat in between circular, tube-shaped muscle groups.
That’s not to suggest that rare chashu must use the coppa. Practically, rare chashu can be made from any cut of nicely marbled shoulder, but traditionally the tubes are used to get the quintessential round look seen in shops.
Ingredients:
Steps:
As I was writing this book, I wondered, why not combine some of the approaches to get the ideal results for each? I love the deeply caramelized exterior of roasted pork but hate how much you have to babysit it. And I love the melty quality of a braised piece of meat but hated how it lacked true roasted flavor. The term “chashu” is derived from Cantonese style BBQ pork after all. This method, therefore, combines both approaches, to get succulent meat, and a delicious, charred exterior.
Since the pork sits out of the braising liquid while the oven preheats, the surface gradually becomes dry and slightly tacky from the sugar, causing the surface to caramelize very quickly. A quick blast in the oven is all it takes.
Ingredients:
Steps:
Unlike my opinion on sous vide pork, which often teeters back and forth preference and dislike, I prefer using sous vide when cooking chicken breast for ramen.
For one, chicken breast is probably the most misunderstood and disrespected meat of all time. Widely available in supermarkets, most cooked chicken breast is either too dry or under seasoned. Many home cooks have avoided this cut entirely for fattier dark meat pieces like thigh or drumsticks, and for good reason. They’re usually far easier to cook and often result in far more palatable dishes.
Sous vide takes all of the careful measurement and delicate process control away, fixing the cooking temperature with precision. Overcooking chicken with sous vide goes from being a frequent problem for home cooks to a total nonissue. And, like with rare pork, you can cook chicken breast at lower temperatures than with conventional cooking while still producing a safely cooked product. The USDA recommends heating all poultry to 74 °C/ 165 °F, but that’s assuming a short exposure time. What does chicken taste like that’s been cooked to a lower temperature, oh, say, 63 °C/145 °F (assuming you adjust the cooking time appropriately)? Good. Real good. That I can assure you.
Here is my preferred method for chicken breasts. It’s extremely versatile, feel free to add herbs, other spices, or seasonings like soy sauce or mirin, to the bag.
Ingredients:
Steps:
I think green onions are the most important topping in ramen. Scallions add sharpness, vegetal complexity, texture, and color contrast. In Japan, a similar allium known as “Tokyo negi” is often swapped in, but the flavor and preparation are similar enough that most home cooks can get away with using scallions.
You have a few options with how you prepare your green onions, most of which is personal preference:
Since the onions are served raw, there’s no recipe for their preparation, only that you cut them how you’d like to eat them. It is of my humble opinion, however, that scallions should be included on virtually every bowl. A bowl of ramen without scallions feels incomplete, even with chashu, eggs, menma, or anything else.
The reality is that menma in the US is hard to make. Menma requires a specific type of bamboo that has been dried and lacto-fermented. These are effectively unavailable to home cooks (though some restaurant distributors do sell them in bulk).
If you can get your hands on these, the process is also somewhat annoying, but doable. Otherwise, some asian supermarkets sell prepared menma.
Ingredients:
Steps:
Note: you may find some additional “quick” methods for making menma with canned bamboo. At this time, I don't have a recipe I think is a sufficient substitute for the real stuff.
This method is blatantly stolen from the legendary Ivan Orkin24, who used this topping to great effect in his shio ramen in Japan. It’s delicious, and a great alternative for an umami-laden ingredient.
Ingredients:
Steps:
This is a common topping in southern-style paitan soups, particularly tonkotsu. It is bafflingly easy to make. They’re primarily for texture contrast, as they have little to no flavor.
Ingredients:
Steps:
Boiling spinach is not hard, and it’s also a common topping, particularly in shoyu. Since the soup is often amply seasoned, I find the water used for cooking here does not need salt. Feel free to add it if you so choose.
Ingredients:
Steps:
Soboro is a common ramen topping in tantanmen, but it’s also great over rice, stuffed into lettuce wraps, or on its own with a spoon, if you’re feeling extra gluttonous.
Ingredients:
Steps:
Method modification: The above can be treated almost like a bolognese. After adding the ingredients in step 4, transfer the mixture to a low oven, partially covered, and cook for 2-3 hours, stirring occasionally and scraping down brown bits. The resulting meat mixture is much more “sauce” like in this application, and takes on notable roasted flavors.
I don’t know whether this counts as a “topping” or not. I like to add it both to the bottom of the bowl and also on top of the soup after the noodles have been added. Will the ramen gods forsake me for mischaracterizing a spice blend? Eh, maybe I’m overthinking it.
In any case, heat comes in several forms in ramen. You can add chili oil, togarashi powder (ground Japanese chilis), or fermented pastes like Gochujang and Tobanjan. I like to make a blend of spices for spicier variants of ramen. Below is a standard spice blend I use:
Ingredients
Steps:
This is a recipe derived from a topping created by a shop called Ryushanhai in the Yamagata prefecture of Japan in 1960. It’s meant to top Akayu style bowls of ramen, but can be used in a host of other applications, especially if you’re a glutton for spice. I can’t say that this will be 100% in line with the style, but it has noticeable heat, and is fun to slowly stir into the soup as you consume it. Don’t worry too much about the quality of the miso you use here, it’s mostly for body and salt, and acts as a backdrop to the primary flavors of garlic and spice.
Ingredients
Steps:
Use around 30-40 g per bowl (but personal preference rules here)
There are countless other toppings, these are just a handful of the most common ones. Toppings give chefs an incredible amount of creativity, and you can really go nuts.
Aroma oil, the unsung hero of ramen.
Have you ever noticed the glimmering surface of a bowl of shoyu ramen? How it almost looks crystalline, glistening with little beads of fat? Those fat blobs are an intentional component of the dish, one that you should be eager to add to your final bowl.
In modern ramen making, fat is seen as integral for a host of reasons:
It’s worth noting that, contrary to the lore of many chefs, fat does not help soup stick to noodles. As mentioned in the soup section of this book, fat is hydrophobic as a non-polar liquid. Water is a polar solvent, and as such only dissolves compounds that have, well, polarity. Table salt comes to mind, the chloride is significantly electronegative, while the sodium ion is electropositive. Fats, by contrast, are nonpolar. The distribution of the charge is pretty neutral across the length of the fat molecule. This is especially true for long fatty acids most commonly found in fats used in food. The interaction between water and fat is therefore repulsive. To minimize free energy, fats prefer to attract one another instead of other water molecules. Therefore, without chemically altering the molecules, the fat and the water separate and poorly interact with one another. This can only be “overcome” by emulsion, where additional compounds are introduced that allows the fat droplets to suspend in the water with greater stability. However, emulsions don’t make the fat more attracted to water either. Emulsions simply reduce the attraction of fat droplets to each other.
If we believe the science, then there’s no scientific explanation that justifies the kitchen lore on soup-sticking-fat. Fat isn’t dragging more soup onto the noodle, out of anything it’s displacing soup as it coats noodles. Rather, aroma oil is valuable for the flavor, mouthfeel, and visual appeal it provides.
Aroma oil is sort of a new addition in several respects. Normally, aromatic oil was derived from the soup making process. Vegetables floating on the surface of the bubbling broth infused the rendered fat from chicken or pork bones used to make the base soup. With the modernization of the technique, cooks now infuse the fat more carefully or add additional fat on top of the fat that is rendered during the soup making process.
This can be a tough pill to swallow for home cooks, but it’s important. For ramen broths, you should expect to include fat. Ramen isn’t really ramen without some form of fat. This ain’t health food y’all. So this chapter will introduce several styles of fat that you can include. Typically, aroma oil is added with the tare, in a liquid (read: warm if an animal/saturated fat) state.
Most aroma oils take the same standard approach. Take fat and aromatics and bring them to the point that the aromatics sizzle. You can push this more and allow them to brown, or not, your choice, but then remove from the heat and allow the aromatics to steep in the fat until cool. Then strain and reserve as needed.
Of all the components in ramen, aroma oil is probably the most versatile for home cooks; you can use it for all sorts of other dishes beyond ramen. This chapter includes the standard aroma oils I use, but the possibilities are limitless.
Many of the recipes here call for some sort of animal fat as the aroma oil. Chicken fat, sometimes called, “schmaltz” is made from the skin most frequently. It’s surprisingly easy to make. I’ve included two methods.
Ah, the stovetop method. This one’s pretty traditional. Most amateurs think they need to render fat at high temperatures, right on the pan, but that actually isn’t necessary. Fats render at lower temperatures than you might think, as we’re really shooting for their melting point. We also don’t want to brown the skin, because we’re just looking for mildly flavored fats that we can add flavor to later. Intuitively, you can avoid browning by putting a ceiling on the maximum temperature your product can reach. Water makes for a pretty good ceiling, as you can’t get much more hot than the boiling point. It also conducts heat pretty well. So for a traditional fat extraction technique, I render fat from chicken skin in water.
Ingredients:
Steps:
These days, I use a microwave, which is not only easier, but less prone to developing roasted or cooked flavors in the skin. As if the stovetop wasn’t easy enough. Microwaving also, in general, provides a better yield35.
Ingredients:
Steps:
You can also use the fat that renders out of any chicken skin used while making soup. This comes with the additional benefit of the skin contributing some of its connective tissue (and therefore collagen) to the soup, enriching it with gelatin. The negative of this approach is that the soup’s oil soluble aromatics will flavor this final fat, which you may or may not want.
Lard is available at most grocery stores. However, should you desire, you can also render pork fat to make lard at home. I find that purchasing even poor quality lard is sufficient for most purposes since we sort of want that piggy-flavor in most applications. But you do you.
Ingredients:
Steps:
If this is your first exposure to aroma oil, this is an easy way to see how the process works, and it’s versatile for several ramen styles without requiring any complex ingredients. It works on lighter bowls and more rich ones. As a bonus, you can use this stuff in all sorts of dishes. Fried rice, sear chicken in it, toss it with a salad. All tasty.
Ingredients:
Steps:
This aroma oil is really nice for ramen bowls that are light in their richness.
Ingredients:
Steps:
This is awesome on bowls with shoyu tares, or soups with fish-forward characteristics like the ”Cement” ramen soup.
Ingredients:
Steps:
I particularly like this one for miso variants, though it’s good on shoyu too.
Ingredients:
Steps:
The celery seed in this oil boosts the flavor of chicken, giving bowls a western flavor that I particularly like in Paitan.
Ingredients:
Steps:
Chili oil is a relative newcomer to the ramen world, usually used in Chinese-flavor inspired ramen dishes like tantanmen, but it’s definitely in line with what I’d consider an aroma oil. I like to use animal fats in mine and combine them with some aromatics, but you can use any variants you like. This is classically used in tantanmen, but is also good for adding some nice chili flavor and heat to other kinds of ramen.
Ingredients:
Steps:
Mayu is a very dark, almost black, aroma oil commonly used in southern-style tonkotsu based ramen, particularly from the Kumamoto region. It achieves this look from finely ground cooked vegetables that are used, not from the oil necessarily. It has a bitter, slightly acrid taste, and should be used sparingly for visual contrast and aromatic complexity. Many approaches exist, but I use a very simple one with just garlic and fat. Adding scallion or regular onion is not a bad idea, however.
While it might appear like it at first glance, none of the vegetables used in mayu dissolve in this process; they still contain a lot of insoluble solids. Like the emulsion found in a paitan, mayu is also a colloid, which is the technical term for a mixture where one material is uniformly dispersed in another, but doesn’t dissolve in the suspending material. The difference between mayu and an emulsion is what is being dispersed. In an emulsion, a liquid is dispersed in a liquid. In mayu, a solid is dispersed in a liquid. Otherwise, several of the same concepts I mentioned earlier apply here. Much like emulsions, to make a stable mayu, you need to make the dispersed particles (in this case the cooked solids) very small so that they become indefinitely suspended in the oil. Making sure your ingredients are dry helps with this. Moisture both prolongs the frying process and results in soggier fried vegetables that are more difficult to grind. This recipe accounts for this with a two-staged approach.
Some recipes online suggest using a food processor or blender, but I’ve found this ends up making a paste that splits over time rather than a uniform oil that’s black throughout. Combining the ingredients with a mortar and pestle has worked the best for me. If you have a suribachi (a Japanese mortar and pestle) that’s even better; the ridges are really effective at breaking down the vegetables into a fine paste. But any bowl and mashing tool (like a muddler even) will work well.
Ingredients:
Steps:
The assembly of ramen is easy but requires some planning, as there are many components. Below is a framework for planning, and eventually assembling, a single bowl of ramen. You’ll notice that the components are not made on the same day. I find that spreading out the work prevents this process from being too overwhelming. Ramen is designed to be prepared in advance anyway, with most of the components improving as they mature over time in the fridge.
Ramen is all about mise en place, the French phrase that means "everything in its place". In ramen, this means everything is ready to be put into the bowl. In most ramen shops, all components are fully prepped/cooked in advance, so a ramen cook can assemble the dish quickly. Usually, assembly only requires heating some soup and cooking some noodles.
But you should know, as a broad method, it's best to break up the process over time. Thinking slightly like a chef helps when making ramen to prevent it from being overwhelming. This means breaking down the prep into manageable pieces and storing them in your fridge gradually. No ramen chef makes every component all at once.
This process will break down a hypothetical scenario for a shoyu ramen to be served on a Sunday. Given the cooking time for some of the components, the weekend/days off are good times, much like a household prepares a stew on Sunday. But this general approach will work for any bowl of ramen you wind up making.
Sunday, one week out (around 1-2 hours of work)
Saturday, the day before (around 6-10 hours of work, mostly idle waiting for things to cook)
Sunday, the day of (only 30 minutes or so required)
With this approach, basically all of the work is done before the actual serving day. Most of the days only have an hour or so of actual intense cooking. Even though some of the processes may take a long time, they are not laborious the entire way. Soups may take hours, but there’s a lot of downtime between simmering and straining. Otherwise, this plan makes the labor involved far more digestible.
Jiro ramen is a unique style of ramen hailing from Tokyo, popularized in the 70s. The ramen style is unique in that the components are heavily interlocked. You may have noticed throughout this book that you can, typically, swap components depending on your tastes. If you enjoy less soy sauce, swap a shio tare. If you like a richer soup, add or remove fatback. While the broad creation of the dish is fairly straightforward by comparison, as the ingredient quantities and selection is minimal, the execution of the components can be challenging at home, as they cannot be made separately. The chashu must cook in the soup, and then must soak in the tare. The fatback is cooked in the soup, and then served as a topping. Typically this means the entire dish is made in one day, although the level of hands-on production can vary if you use tools like a pressure cooker.
The execution of this ramen, then, requires a flowchart that differs slightly from the more flexible one listed above; typically requiring the components to be made almost all in the same day:
Other components of the style may also be prepared during the assembly of the dish. Commonly, beansprouts and cabbage are included in the dish. These are usually cooked to order along with the noodles, via boiling.
Once you have all of your components, it’s time to assemble the bowl of ramen.
Before you get to the actual ramen feasting, consider the vessel you’ll be serving the ramen in. Ramen is typically served in what is called a donburi-style bowl. If this kind of bowl isn’t available, something like a large cereal bowl is probably okay. If you’re trying to up your ramen presentation, consider the following characteristics when picking a bowl:
My ideal bowl is a classic shape: Round, with a slightly flared lip, which can be used to carry the bowl without burning yourself as the bowl heats up. It’s made of ceramic, is white, and is moderately thick. It should not be extravagant looking but should be wide enough that you can add toppings without totally hiding the soup and noodles below. Currently, I am loving the bowls by Koyo36. Their medium 52-oz bowl is essentially perfect, though I’ve also used their straight-sided V bowls, which are also great. Another good place to buy ramen bowls is Korin37.
Ramen does not work without a well set up station where the components are prepped, chefs call this mise en place; it’s how a shop can get a bowl done in five minutes. So get yourself ready.
Yes, you should do this. This is the first thing almost all great ramen shops do that improves the final dish. Short of using a double-walled metal bowl or something hyper-insulated, if you add hot soup to a lukewarm or room-temperature bowl, the bowl’s material is going to absorb a lot of that liquid’s heat as the two reach equilibrium, easily 20-30 °C/40-50 °F sapped immediately from your soup. And lukewarm ramen isn’t great. Preheating the bowls completely prevents this issue. In ramen shops, they’ll often take some of the boiling water from the noodle cooker and pour it into the bowl temporarily to heat things, but at home, I just set my oven to the lowest setting it has, in this case, 77 °C/170 °F, and preheat my serving bowls in there. By the time the oven reaches temperature, the bowls are hot (almost too hot), and I turn off the oven.
Once your mise en place is ready, it’s time to start cooking. I like to start with the noodles, as they can take the longest in the assembly. With the water boiling rapidly, add your noodles, then set your timer and let them cook, keeping the water boiling as much as possible to promote even cooking. Give them a quick stir to make sure they won’t stick together as soon as the timer is going. It’s worth noting that noodles can vary in terms of the time required to finish them. Look for manufacturer recommendations on timing, or taste occasionally for doneness.
It’s critical, by the way, that you don’t cook your noodles in the soup itself. These aren’t instant noodles; fresh ramen noodles release salt, alkaline salts, starch, and even sometimes food dye as they cook. This stuff doesn’t taste all that great, and it will severely mess up the pristine soup you’ve worked so hard on. For control’s sake, cook the noodles in separate water.
While the noodles cook, add tare, aroma oil, and soup, ideally in that order, to your serving bowl. If you’re doing something funky, such as adding spices, pepper, or fish powder, add them with the tare.
Tare amounts vary by recipe, look at suggestions below for specific examples.
Adding the soup last ensures the tare is evenly dispersed and the final soup is evenly seasoned. If you’re using a thicker tare, like miso, you’ll want to whisk things in the serving bowl.
When the noodles are done, it’s imperative to move quickly, as these are fresh noodles, and 5-10 seconds is all it takes for these noodles to go from chewy and pliant to soft and limp from overcooking. Remove the noodles from the cooking water immediately, and strain the noodles as thoroughly as you can. The goal is to remove as much excess water as you can in 5-10 seconds. This water will dilute your soup and potentially give it a strange flavor, so thorough straining is important.
Many chefs in Japan have developed stylistic straining methods to do this effectively. They’ll use fine mesh strainers, more specifically noodle baskets, flailing them around and spraying water everywhere. Or throw their arms to the side and crash the noodles against the confines of the noodle basket. Chef Jack Nakamura, a legendary ramen chef in Japan, is particularly known for his noodle straining technique, which has been dubbed the “Heaven’s Drop” technique38.
I don’t think this showmanship is necessary, even if it looks cool. I just gather the noodles into a noodle basket and shake over the pot quickly to make sure there’s very little water.
You also want to move quickly because ramen noodles tend to get sticky when exposed to air after cooking. The residual gelatinized starch quickly links up as the surface dries, promoted by the alkaline environment, and your noodles will go from separate and slippery to clumped and caked. If this does happen, just dunk the noodles back into hot water for 5-10 seconds to dissolve some of that starch and separate them again. They won’t be as perfectly cooked, but they won’t be clumped and impossible to eat. And move quickly next time!
Once the noodles are added to the bowl, they’ll probably be bunched up into a ball. Some shops leave the noodles as is, others use a pair of chopsticks to shake the noodles briefly in the soup to distribute them evenly and prevent them from sticking.
This is also where you can perform the so-called, “noodle fold.” Noodle folding is a common plating technique to take the noodles and essentially fold them into a bundle. Doing this effectively separates each strand so they’re easier to pick out of the bowl while eating, and provides a platform for toppings later on. It also looks cool. I use a pair of super-long kitchen tweezers to do this, lifting the noodles and folding them over themselves. But chopsticks or tongs can be used to create the fold.
The fold is not easy, making it takes practice. And some noodles, such as thin, low hydration ones, fold better than others, like curly, short noodles. Ultimately, it is a mostly aesthetic choice with some arguable functional benefits. If you’re dead set on noodle folds, consider the following qualities of the noodle as part of the design of the bowl:
Add toppings. The plating is entirely up to you, but I have a few recommendations. If you’re using nori, add it last, as it gets soggy quickly. I add the meat first so it can maintain warmth. I’m also pretty particular with the position of the toppings. Using a clock as an analogy, I like placing the green onion in the middle, chashu/meat at 6 o’clock, nori at 1 or 2 o’clock, egg at 11 or 12 o’clock, and other toppings at 3 or 9 o’clock.
Plating examples are below. Notice that in virtually all examples, the bowl has the protein at the 6 o’clock position, with toppings aligned mostly towards the center of the bowl.
Even the way you’re supposed to eat ramen is highly disputed. I’ve heard chefs say that noodles degrade in quality after 8 minutes (of course, different noodles will behave differently in soup, as we have discussed). But it’s true that ramen, being the scalding hot dish it is, is best eaten quickly to avoid the noodles getting soggy in the hot broth. Some adjuncts in the noodle can help maintain the structure to an extent, but after a while, all noodles become soggy in hot soup.
Most ramen nerds agree that noodles should be slurped when eating. This is mostly a function of cooling the noodle while eating it, but slurping also brings in air, helping with retro-nasal olfaction,allowing you to taste the soup and noodles more fully. I wouldn’t say it’s required, I’m hardly dogmatic, but I’d say it tastes better when you slurp. Also, slurping isn’t necessarily impolite either. In America we’re weird about it, but in Japan slurping is traditional and often even encouraged. I think it’s time we embrace the custom.
The basic approach to assembly applies to most bowls of ramen bowls. But it’s not the only method, as chefs inherently deviate in their approaches and techniques when putting their stamp on the dish. Below are some methods that have evolved over the last 100 years of the dish.
In the north of Japan, in Hokkaido, an emergence of wok cooking via Chinese restaurants resulted in several ramen styles that incorporate woks as part of the assembly of the ramen. This is particularly true for miso ramen, whose origins specifically include the wok as part of the assembly, but even shoyu ramen in the north can include wok cooking to some capacity. It’s important to understand the difference in assembly.
Unlike in the standard ramen approach, the wok method follows this flow:
Most miso ramen in Hokkaido is created this way. But the treatment of the tare itself varies from shop to shop. Some commit to charring the tare, others keep it mostly raw up until the very end. But the wok flavor is an integral component of a true to style bowl of Sapporo ramen.
To execute his approach requires specific timing, since the vegetables rapidly cook. It’s important to dial in the details of this method by understanding your burner’s capacity for heat, the time in which your noodles cook, and the number of portions you can make in your wok.
As part of the new wave of ramen in Tokyo, which focused on refining the ingredient bill to only use top tier ingredients and to strip away excess, the shop 69'N'Roll One is credited with a technique where a small dropper of extremely potent, expensive soy sauce is added in addition to the tare to the bottom of the bowl.
This creates a new style of ramen where the tare is broken into components, rather than being one cohesive sauce. Some newer shops now experiment with multiple tares, arguing that different ingredients extract better in different applications. As I’ve mentioned before, I disagree with this concept, as there’s very little evidence to suggest that extraction is impacted by these mediums, but it’s worth noting that the style does exist.
Tsukemen is distinct in that the soup and noodles are served separately, where the customer is expected to dip the noodles into the soup before slurping them up. Often the noodles are served cold, and the soup hot, providing temperature contrast. The cold noodles, due to their preparation, also have an intensely dense starch gel, providing substantial chew and gloss that is often unachievable in standard ramen applications.
Assembly is very similar to the standard approach, except that the noodles are plated on the side. They may be shocked in cold water to stop the cooking or served hot.
There are a host of different names for these approaches, but they all share the same general framework in that they are essentially soup free. They share some resemblance to pasta, with a dressing or sauce coating the noodle.
Most of these styles work on a basic framework where:
Virtually any ramen method can be turned into abura soba simply by excluding the soup and adding the aroma oil and tare to the bottom of the bowl.
As is the case with most ramen making, you’ll need to combine tare, oils, soup, and noodles to make a cohesive bowl. Below are examples based on the way these recipes were designed, but they are by no means required combinations. See what works for you, and adjust as necessary.
You may notice that I list the liquids by volume, rather than by mass. This is primarily because you can measure volumes often very quickly (1 tbsp is 15 mL, 300 mL is 10 oz, etc.), while weighing out ingredients per bowl is much more arduous. Volume, therefore, makes assembly easier. But of course, these are just suggestions, your mileage may vary.
If you really want to speed this process up, you can purchase specific ladles for these quantities, using a specific ladle for each quantity. That’s probably overkill for a home cook, but in the crunch of a kitchen, that can help quite a bit. But a set of measuring spoons and cups works fine.
Use the Standard Bowl Assembly approach or the Sapporo Miso Wok Method.
Since the tare in this is thick, it’s sometimes helpful to whisk the tare and the soup in the bowl to incorporate fully.
Please note the slightly lower volume of soup and the slightly higher relative salinity, both of which are required for tsukemen to work.
Follow the tsukemen approach to shock the noodles thoroughly before assembling the soup.
The interlockings of these components require close monitoring of each, but the ingredient selection is fairly simple.
The goal is to cook both the vegetables and the noodles at the same time, but separately, to ensure that the vegetables are crisp but not mushy, while still being hot during topping. Typically, a pre-noodle cook blanch, followed by a re-dunking after the noodles are finished, is the way to go.
There are a host of different ingredients used in ramen that may be unfamiliar to cooks outside of Japan. This section will be used to explain the nuances of some of the common ones.
Soy Sauce:
Mirin:
Kombu
Bushi Products
Niboshi
Miso
Sake
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