Wednesday, January 13, 2016

Hopped up IPA

India Pale Ale
All Grain

Brewer/Contributor: Don Pfeiffer
Batch Size: 5.50 gal
Boil Size: 7.00 gal

Hopped up IPA
Type: All GrainDate: 8/19/2004
Batch Size: 5.50 galBrewer: Don Pfeiffer
Boil Size: 7.00 galAsst Brewer:
Boil Time: 60 minEquipment: Shakey Dog Brewery
Taste Rating(out of 50): 35.0Brewhouse Efficiency: 70.00
Taste Notes:
 
Ingredients
AmountItemType% or IBU
9.00 lbPale Malt (2 Row) US (2.0 SRM)Grain64.29 %
2.00 lbCaramel/Crystal Malt - 20L (20.0 SRM)Grain14.29 %
2.00 lbWhite Wheat Malt (2.4 SRM)Grain14.29 %
1.00 lbVictory Malt (25.0 SRM)Grain7.14 %
0.50 ozChinook [13.00 %] (60 min)Hops19.8 IBU
1.00 ozCascade [5.50 %] (45 min)Hops15.4 IBU
1.00 ozCascade [5.50 %] (30 min)Hops12.9 IBU
1.00 ozCascade [5.50 %] (15 min)Hops8.3 IBU
1.00 ozCascade [5.50 %] (5 min)Hops3.3 IBU
1.00 ozCascade [5.50 %] (Dry Hop 7 days)Hops-
1 PkgsCalifornia Ale (White Labs #WLP001)Yeast-Ale
 
Beer Profile
Est Original Gravity: 1.065 SGMeasured Original Gravity: 1.065 SG
Est Final Gravity: 1.014 SGMeasured Final Gravity: 1.010 SG
Estimated Alcohol by Vol: 6.56 %Actual Alcohol by Vol: 7.18 %
Bitterness: 59.6 IBUCalories: 290 cal/pint
Est Color: 10.0 SRMColor:
Color
 
Mash Profile
Mash Name: Single Infusion, Medium Body, No Mash OutTotal Grain Weight: 14.00 lb
Sparge Water: 4.56 galGrain Temperature: 72.0 F
Sparge Temperature: 168.0 FTunTemperature: 72.0 F
Adjust Temp for Equipment: TRUEMash PH: 5.4 PH
 
Single Infusion, Medium Body, No Mash Out
Step TimeNameDescriptionStep Temp
60 minMash InAdd 17.50 qt of water at 165.9 F154.0 F
 
Mash Notes: Simple single infusion mash for use with most modern well modified grains (about 95% of the time).
Carbonation and Storage
Carbonation Type: Corn SugarVolumes of CO2: 2.4
Pressure/Weight: 4.2 ozCarbonation Used: -
Keg/Bottling Temperature: 60.0 FAge for: 28.0 days
Storage Temperature: 52.0 F

http://beersmith.com/Recipes2/recipe_242.htm
 
 

Monday, January 11, 2016

Brewing India Pale Ale Recipes IPA Beer Styles

Brew Boss - Electric Homebrewing Systems www.brew-boss.com

India Pale Ale (or IPA) is a popular staple of homebrewers, microbrewers and hopheads who enjoy brewing some of the hoppiest beers on the planet. This week we look at India Pale Ale beer recipes, how to brew an IPA recipe and its history.

History


According to Wikipedia, India Pale Ale traces its origins to the 17th century in England with the earliest pale ales. In fact, new malting techniques developed at the start of the 17th century using coke-fired as opposed to wood-fired kilns enabled production of the first pale malts, and subsequently paler beers. One of the popular pale styles was a beer called October beer, which was highly hopped and designed to be stored for an extended period. Note that this October beer bears no relation to German Oktoberfest beer.

George Hodgson, owner of Bow Brewery brewed a version of October beer that was popular among the traders of the East India Trading Company in the late 1700’s. East India traders subsequently started trading many of Hodgson’s beers including his October beer. The highly hopped, high gravity, highly attenuated pale ale actually benefitted from the long trip to India and became popular with consumers there.

Other brewers, including several large Burton breweries like Bass, Alsop and Salt lost their European export market in Russia due to new high tarrifs on beer. They quickly emulated the October beer of Bow Brewery and also started exporting to India. The style, which now was now commonly called “India Pale Ale” became popular in England as well around 1840.

The IPA Beer Style


IPA is a hoppy, fairly strong pale ale traditionally brewed with English malt, hops and yeast. The American version has a slightly more pronounced malt flavor and uses American ingredients. The BJCP style guide for 2008 places original gravity at between 1.050 and 1.075, and highly attenuating yeasts are used to drive a final gravity between 1.010 and 1.018 for 5-7.5% alcohol by volume.

Multiple hop additions dominate the flavor profile in IPAs. English IPA’s typically have 40-60 IBUs, though the slightly stronger imperial IPA versions can have hop rates as high as 120 IBUs.

Color is similar to many pale ales – golden to deep copper color – varying between 8-14 SRM for the finished beer. Moderate carbonation is often used, though some English IPAs are lightly carbonated.

Brewing an IPA


Hops dominate the flavor of an IPA, so careful selection of the hop additions is critical to success. Traditional English IPAs use popular English hops such as Fuggles, Goldings, Northdown, Target, though sometimes noble hops are also used in finishing. Higher alpha English hops are also popular for bittering. American IPAs use the rough American equivalents such as Cascade, Centennial, Williamette, though again higher alpha hops are often used in bittering.

Multiple hop additions are almost always used for IPAs including bittering hops at the beginning of the boil, often several additions of finishing hops in the last 5-15 minutes of the boil, and dry hops to provide a hoppy aroma. In general, higher alpha hops are used for the base boil addition while aromatic lower alpha hops are used in finishing and dry hopping, though some traditional IPAs use lower alpha English hops throughout.

Traditional English 2-row pale malt makes up the bulk of the grain bill (or two row American malt for the American IPA), usually around 85-90% of the total. Crystal and caramel malts are traditionally used to add color and body to achieve the desired overall color both in extract and all-grain recipes.

Chocolate and black malts are not often used in commercial examples though they occasionally make their way into home-brewed recipes. Personally I prefer moderately colored caramel/crystal malt. Occasionally you will see wheat, flaked barley or carapils malt added to enhance body, though these are rarely used and only in small quantities.

As many IPAs were first brewed in the English city of Burton, they share much with their English Pale Ale cousins, including the unusual Burton water profile which accentuates the hoppy profile. The Burton water profile has extremely high concentrations of calcium carbonate and bicarbonate. Depending on your local water source, a small addition of Gypsum (CaSO4) can sometimes help to simulate the hop-enhancing high carbonate Burton waters.

IPAs are most often made with traditional English ale yeasts, though care must be taken to choose a highly attenuating yeast and avoid some of the lower attenuating, fruity British ale yeasts. Many brewers bypass the problem entirely by choosing a highly attenuating American or California ale yeast for a cleaner finish.

All grain IPAs should be mashed at a lower temperature than pale ales to achieve the high attenuation desired. A mash temperature around 150F for 90 minutes will aid in breaking down more complex sugars for a clean finish that accentuates the hops.

IPAs are fermented and stored at the traditional ale temperatures, usually around the mid 60’s F. Long storage periods are sometimes required to achieve the proper hop-malt balance.

http://beersmith.com/blog/2009/09/13/brewing-india-pale-ale-recipes-ipa-beer-styles/
by BRAD SMITH

Saturday, January 9, 2016

How to Choose a Yeast Strain




Selecting the right yeast for the job is simple, right? Just pick one with a name that echoes what you’re brewing: American ale for pale ale, Scottish ale for wee heavy, Czech lager for Pilsner, and so on. Nothing to it!

Well, yes and no. Choosing a strain by name alone isn’t a bad way to start. After all, there’s a reason for the names, and selecting a yeast according to its name is unlikely to steer you too far away from where you’d like to be. But it’s also important to look at certain performance indicators to make sure your chosen strain is up to the job.

Here’s what to look for when deciding on a yeast.

Attenuation


Attenuation refers to the percentage of available wort sugars that a yeast strain actually ferments. More commonly, brewers talk in terms of apparent attenuation, which is the attenuation calculated purely from hydrometer readings. Typical values are
Low: 72 percent and lower
Medium: 73 to 77 percent
High: 78 percent and up

The desired degree of attenuation is partly a matter of style and partly one of personal preference. Using a low-attenuation yeast for a saison or a high-attenuation yeast for a mild ale is likely to disappoint. But I’ve discovered that I tend to prefer a drier finish in most of my beer, so I tend to err on the side of more attenuation than less.

TAKE-AWAY: Select a yeast strain that exhibits the right level of attenuation for the beer style and for your palate.

Flocculation


Flocculation is the readiness with which yeast cells clump together and, having reached a critical mass, drop to the bottom of the fermentor. British strains are famously flocculent: After fermentation is complete (and sometimes before!), yeast cells form a compact cake on the floor of the fermentor that comes off in chunks. Strains that demonstrate low flocculation, such as Weizen yeasts, tend to laze about and remain in suspension well past the end of the party. In extreme cases, the beer has to be refrigerated (or, in a commercial setting, centrifuged) to separate the yeast.

TAKE-AWAY: Select a yeast strain that flocculates in a manner appropriate to the beer you’re brewing.

Alcohol Tolerance


Alcohol tolerance describes how much alcohol a yeast strain can tolerate before it stops working. Brewers have selectively pressured yeast strains over the years to adapt to different conditions, and breweries that have favored high-alcohol beer will typically have yeast strains that have risen to the challenge. A cold-fermenting Pilsner strain works well for lagers with less than 10 percent alcohol, while Rogue’s famous Pacman ale yeast can easily carry you into barleywine territory.

TAKE-AWAY: Select a yeast strain that can survive beyond your beer’s estimated alcohol level.


Temperature Range


Temperature range is the—wait for it—range of temperatures in which a yeast works best. Note that I said “best.” Virtually all yeasts will continue to ferment at temperatures well above the indicated limit, but you probably won’t like the results: Think overpowering esters and off flavors. Below the recommended range, you might experience a sluggish fermentation. Knowing a yeast’s optimal temperature range is important for a couple of reasons:
Your equipment (or lack thereof) may limit you to fermenting at certain temperatures.
Depending upon the flavor profile you want, a cooler or warmer fermentation may be desirable.

TAKE-AWAY: Choose a yeast that satisfies your needs for both fermentation environment and flavor profile.

And speaking of flavor profile...

Sensory Profile


Sensory profile is a major driver of the flavor and aroma profile of the finished beer and also the hardest to describe. Attenuation, flocculation, alcohol tolerance, and temperature range are all quantifiable, but sensory descriptors are imperfect and subjective. And a yeast strain’s sensory characteristics change depending on temperature, pitch rate, oxygen levels, and other variables. In short, the only way to really know is to brew with it. Read the descriptors to get a general idea, and then take notes on how you perceive the results.

TAKE-AWAY: Practice, practice, practice!

AUTHOR: DAVE CARPENTER

Thursday, January 7, 2016

3 Things to Check Before You Buy a Refractometer

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3 Things to Check Before You Buy a Refractometer Primary


When you remove the daily post from your mailbox, how often do you find a catalog chock full of shiny new homebrewing toys? Anywhere from four to six of these arrive at my house per month, and although the products remain mostly the same from one issue to the next, I never fail to browse the whole thing cover to cover every time. The siren’s song of new gadgets is simply too beautiful to ignore.

I managed to ignore the #refractometer for a long time. After all, a #hydrometer is much cheaper and measures wort specific gravity just as well. But refractometers do offer some nice advantages. Only a small wort sample is needed, a couple of drops rather than a test tube’s worth. A refractometer won’t roll off the counter and onto the floor, shattering into countless shards of glass. Also they look cool.

The refractometer operates on the optical principle that light passing through a liquid refracts at different angles according to the density of that liquid. Rephrasing that statement, light passing through a small sample of wort refracts at different angles according to the concentration of dissolved sugar in that wort. The refracted light illuminates a scale, upon which is printed a range of wort densities. You peek through an eyepiece and read the wort density from the scale.

Temperature Compensation


The refractive index of a liquid doesn’t just change with density; it also changes with temperature. Most good refractometers feature automatic temperature compensation (ATC) and will report the same value over a wide range of practical temperatures, usually between 55 and 85°F (13 and 29°C). ATC is a convenience well worth seeking out because a couple of drops of even boiling wort will quickly cool to within this range. This is of particular advantage to all-grain brewers who want to monitor the gravity of runoff, which is typically around 170°F (77°C).

Units of Measurement


Most refractometers available to homebrewers these days are dual-scale instruments that report results in both Brix and specific gravity units of measurement. Brewers usually prefer to express density in either specific gravity or Plato units, while winemakers often prefer Brix. In fact, Brix and Plato are closely related, and the two units may be considered equal to within 5 percent.

If you are accustomed to working in specific gravity (SG) units, then take a second look before pulling the trigger on a too-good-to-be-true refractometer bargain to make sure it includes a specific gravity scale. Working in Brix isn’t terribly inconvenient, but you don’t want to be surprised on brew day.

Final Gravity Adjustment


One area where the hydrometer remains superior to the refractometer is in measuring final gravity (FG). Unlike reading a hydrometer, which simply floats in the mixture of water, sugar, and ethanol that we call beer, using a refractometer to get FG is a little tricky. To wit, you’ll need to know the gravity of the original wort, and then you have to perform a conversion. You can calculate it by hand (not recommended), or numerous tools such as BeerSmith include refractometer calculators that will do it for you. This shouldn’t make or break your decision to purchase one of these optical wonders, but keep it in mind so that you have realistic expectations.

Ultimately, the refractometer is simply another tool for your homebrewing arsenal. It won’t replace the trusty hydrometer, but in the hands of an educated brewer, it can be a valuable investment.

AUTHOR: DAVE CARPENTER

Tuesday, January 5, 2016

Better Bottling

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They say you can’t judge a book by its cover, but I must admit to being a complete sucker for beer poured from a sparkling-wine bottle. Uncorking a 750 ml bottle of saison, lambic, or imperial stout just feels special, and truth be told, I would probably award industrial macro-brews extra points on theUnfiltered beer app if I could open them with such fanfare.

We homebrewers often encourage one another to take up kegging as the next logical step toward pouring the perfect pint. But even if you keg most of your beer, some occasions simply call for bottles. Whether you want to submit to a competition, offer homebrew as a gift, or simply stash a few beers in the trunk to enjoy after a hike, bottles let your beer go anywhere. Here are three steps you can take to step up your bottling game.

1. Carbonate to Style


Formulating your own recipes is an enjoyable part of homebrewing, but sometimes you don’t want to think too hard: You just want to get some beer into the pipeline. That’s why novice and advanced homebrewers alike appreciate the convenience of beer kits.

Those prepackaged kits usually include little premeasured bags of priming sugar, and—in most cases—said bags contain 5 ounces (142 grams) of corn sugar. This carbonates 5 gallons (19 liters) of beer to about 2.5 to 2.7 volumes (5.0 to 5.4 grams per liter), which is a good all-purpose level of fizz if you don’t have a good reason to do otherwise.

But there is a very good reason to do otherwise: Different beer styles taste best at different carbonation levels (see Table 1, below). British cask ales might barely breach 1 volume (2 grams per liter), while some Belgian styles approach 4 volumes (8 grams per liter) of CO2 or more.



It’s not just a matter of numbers. Carbon dioxide reacts with water to create carbonic acid, which is what gives tongue-tingling life to effervescent beverages. That carbonic bite plays an important role in our perception of the malt, hops, esters, and phenols that lie within.

Achieving a precise level of dissolved carbon dioxide is easy when you force carbonate in a keg: Just set the regulator pressure according to the serving temperature for your desired level of fizz. You can even adjust it as you empty the keg. But doing it right in bottles takes a deft hand.

Detailed calculations are best left to brewing software, and I highly recommend taking the time to get to know BeerSmith, Brewer’s Friend, or one of the many other programs that do all of the math for you. But, roughly speaking, fermented beer already contains about 0.8 to 1.0 volumes of carbon dioxide from fermentation itself. The warmer the beer gets, the less CO2 remains in solution when you go to bottle, but assuming 0.8 to 1.0 volumes to start will get you in the ballpark.

Then, for each additional volume of carbon dioxide, you need to add about two gravity points (1.002) worth of fermentable sugar. One ounce (28 grams) of corn sugar per gallon (3.8 liters) of beer contributes about three gravity points, ergo a priming rate of 5 ounces of sugar per 5 gallons yields an additional 1.5 volumes of carbon dioxide, giving roughly 2.5 volumes total when added to what’s already there. If you wanted to carbonate to 2 volumes instead of 2.5, then you’d adjust the amount of corn sugar proportionally to add just 1 volume on top of what’s already there.

But seriously, just get the brewing software.

2. Try Kräusening


Kräusening is a German technique in which carbonation is achieved by adding actively fermenting wort to finished beer before packaging. German brewers do it to remain compliant with the Reinheitsgebot,under which the addition of simple sugars is verboten. But there’s a good reason to try it as a homebrewer.

Just as making a starter helps ensure that you have a healthy population of yeast cells going into fermentation, adding fermenting wort to beer before packaging is a good way to ensure that the yeast cells you need for carbonation will be up to the task. This is especially helpful for high-gravity styles and lagers, in which the yeast cells that remain in solution after fermentation may be poor in health or low in number.

Introducing active yeast can also help reduce certain off-flavors such as diacetyl. Remember, yeast cells will often clean up after themselves if offered the chance. Kräusening is a way to give them that chance. Once again, the math is complex, and I strongly recommend spending some time with brewing software. But, here’s a very approximate and simple way to try your hand at it.

Prepare a 2.5-liter (2.6-quart) yeast starter using the golden rule of 100 grams (3.5 ounces) of dry malt extract for every liter of starter, so 250 grams (8.8 ounces). Inoculate it with fresh yeast, preferably the same strain that fermented the beer you want to carbonate, but don’t agitate it or place it on a stir plate. As soon as you see visible signs of fermentation in the starter, add the whole thing to the bottling bucket along with your beer, and bottle it. This will introduce enough active yeast and malt sugar to achieve roughly 2.5 volumes of carbon dioxide in a 5-gallon batch of beer, again assuming that there’s already about a volume in there.

Purists will recognize that isn’t technically Kräusening in the traditional sense because one would traditionally inoculate with wort of the same composition as the beer being bottled. This is simple to do in a commercial setting, where brewers make the same products day in and day out. But most homebrewers don’t have that luxury, which is why I recommend at least starting with a simplified technique to see whether you like it.

3. Corks, Cages, and Caps


Carbonating to style and Kräusening might make your beer taste better, but packaging in a fancy bottle will make it look better. And in my opinion, nothing beats a sparkling-wine bottle for the extra bit of class that makes ordinary beer look extraordinary. After all, check out what 750 ml bottles of beer sell for.

To package in sparkling-wine bottles, you’ll need
  • Sparkling-wine bottles (obviously)
  • Sparkling-wine corks
  • Wire cages, sometimes called hoods or muselet
  • A bench capper or floor corker
  • A wire-cage tool or (my cheap solution) a chopstick or pencil

There are two types of sparkling-wine bottles, and they’re incompatible with one another. European sparkling-wine bottles, including those that hold authentic champagne, have a slightly larger opening (29 mm) than American sparkling-wine bottles (26 mm). As always, seek out brown bottles for their light-blocking properties, unless you have a particular affinity for lightstruck flavors.

You can, in fact, seal either type of bottle using a good old-fashioned crown cap, provided you purchase the right-size cap for the bottle (most homebrew stores sell both 26 mm and 29 mm caps). Some brewers cap sparkling-wine bottles using the same wing-type handheld capper that you’d use to seal any other beer bottle, but your mileage may vary. For stability, leverage, and speed, I like to use a bench capper.

If you’d like to seal those bottles with a cork, however, you’ll need a floor corker. Now, you can certainly buy a dedicated champagne floor corker if you prefer to use traditional Belgian-style corks, but there are two other solutions as well.

Plastic T-stoppers can be pushed in by hand, or you can use a regular bench capper to push them right into the neck with virtually no fuss. And plastic stoppers are reusable to boot. Sure, plastic lacks the elegance of cork, but not purchasing a special corking device makes up for it in my book.

The cages that secure the corks in place aren’t just traditional; they’re necessary to keep the cork from popping right off the top of the bottle as carbonation pressure builds. They’re easy install: Just place the cage on top of the cork and use a wire-cage tool, a chopstick, or even a pencil to turn the little wire. As the wire turns, the cage will tighten around the cork. Tradition dictates six half-turns, but what’s most important is that the bottom of the cage securely grabs the underside of the lip.

Packaging in Belgian bottles is similar to packaging in sparkling-wine bottles. There’s a bit of finesse required to keep just the right amount of cork above the neck, but if you already own a floor corker (if you’re a regular winemaker, say) you can bottle in Belgian bottles just as easily.

Another solution is to follow the lead of brewers like Cantillon and Fantôme, and cork the bottle with a standard wine cork before capping it. There’s no science that supports the benefit of this redundant closure method, but if evoking romantic notions of Brussels is your goal, there’s no better way. One added benefit of this method is the ability to use less-expensive wine corkers rather than the more expensive champagne corkers.

Keep in mind that competitions usually require regular 12-ounce longnecks, so if you plan to submit entries, you’ll want to bottle at least some of your batch in the conventional manner. But popping the top on an elegantly bottled 750 milliliters of homebrew instantly turns an ordinary evening into something memorable.

A Return to Basics


When I started homebrewing, I dreamed of owning a home-draft setup with on-demand kegged beer at the ready (and I eventually got it). But as I’ve progressed, I’ve come to appreciate the elegant simplicity that accompanies well-conditioned bottled beer. You can cellar it. You can give it away as gifts. And yes, you can even drink it while watching the game. Most importantly, you can take it anywhere.

Ultimately, it’s about taking that last step to pouring the perfect pint, whether it flies out of the business end of a stainless-steel faucet or gently gurgles from the mouth of a glass bottle. But once you figure out the bottling method that’s right for you, I guarantee that no amount of shiny stainless steel will ever quite compete.

http://beerandbrewing.com/VkUjXSQAAPcLaONM/article/better-bottling