Thursday, February 5, 2026

Reflections on Steel Shot Sizes and Waterfowling

 

#F (.22”) – The Ayatollah of Rock ‘n Rolla

In the old days, there was this thing about shooting super high geese with #4 buckshot.  A 3” 12 ga load can only hold something like 40 or 41 #4bk pellets, which seems like it’d be hard to keep together past ranges where #BB lead will pass through a goose.  But some guys also used piano wire, so I guess it made sense.  I wasn’t there.  Anyway, in the mid 1980’s, Federal introduced #F steel, I assume, to tickle that itch legally.  Winchester followed suit a few years later.  With 39 pellets to the ounce, it must have seemed luxurious to the buckshot shooting crowd.  But just like Lord Humongous, though intimidating, #F proved to be less than effective.  Even at 1200 fps, the almost buckshot size pellet still has adequate penetration for a goose further than most hunters can shoot, but you have to get a 100% pattern with a 12 ga load to meet the criteria for a likely clean kill.  Even in a 10 ga 1-3/4 oz load (Winchester’s) you needed 80% in the circle.  By the 1992, Tom Roster’s Lethality Table was recommending #F not be used past 55 yards, and within a few years, it was dropped from Federal’s and Winchester’s catalogs.  Some states have even banned it.  However, #F shot is still legal in the state I live in, and I have a 10 pound bag of it.  I really want to make it work, because what could be cooler than shooting geese with a scoped .44 Mag while wearing a steel hockey mask and leather speedo?  I mean, come on…

#TT (.21”) – The Shot Size that Time Forgot

Remington never loaded any #F steel in shotshells.  Instead, they opted for #TT to fill the super-size niche in their lineup.  (Why not?)  And at just .01” smaller the #F, it fulfills the role about the same: charges are listed by pellet count rather than weight, patterns are correspondingly thin, and loads tend to cripple rather than kill despite the individual pellets’ impressive penetration.  The big three dropped the out-sized shot about the turn of the century, but oddly enough, whereas #F is still mentioned today as a “crippler,” #TT has been so solidly dropped that most have forgotten it ever was a thing.  (Note, for example, this language from the Wisconsin hunting regs: “Only non-toxic sizes BB, BBB, T or smaller are legal. Size F shot is illegal in Wisconsin.”)  This, obviously, makes it the coolest shot in a steampunk sort of way.

#T (.20”) – The King of the Marginal

Steel #T’s is about as big as you can go and still have enough pellets to make an acceptable pattern at eXtreme range.  It may take a 3.5” shell and some fiddling, but you should be able to get 55 pellets in the circle at 50 yards.  However, the pellets still have juice for another 5 to 10 yards and thereby keep alive the idea of the 60 or 70 yard shot. 

#BBB (.19”) – Real Ultimate Power

Graceful, powerful, like a leaf on the wind.  If the Ninja is the physical manifestation of balance, then the #BBB is the Ninja of the steel shot.  A 3” 12 ga, 1-1/4 oz load at 1450 fps produces moderate recoil and yet contains enough pellets with enough energy to achieve a decent pattern with necessary penetration on a goose at 50 yards.  Light on the shoulder, hard on the birds.  Move up into the more robust loadings of the 10 ga for true domination. 

#BB (.18) – Lowest Common Dominator

And if #BBB is the Ninja, then #BB would be the Steven Seagal of steel shot: ubiquitous, uninteresting, and probably effective (I think he once actually broke an extra’s arm or something by accident).  And just as Steven has had a second mediocre career as a musician, #BB can also double time as an eXtreme range duck load (in a thinnish, barely adequate sort of way). 

#B (.17”) – the #4 of Letter Sized Shot

For some strange reason, #B has never been offered by a major US cartridge company (I know a few garage based start-ups have, and EMI sold some Hevi Steel (the 9ish g/cc stuff from the 2000’s) in #B size, but those don’t count.)  But, unlike #TT (remember, it was forgotten), #B has always been readily available to the handloader micro-market.  It’s allowed us another subtle way to signal our difference from the same-faced schlubs buying Xpert #BB’s at Cabela’s.  Kind of like changing out the laces in your Chuck Taylors with some neon ones you bought at Pacific Sunwear.  Fantastic.  Unfortunately, #B kinda of sucks.  It’s right in that not so sweet décolletage between pattern density and penetration.  For geese, it makes for some dense patterns, but it runs out of steam just shy of 40 yards, so not a lot of margin for range estimation errors (to say nothing of pass shooting).  And for ducks, we get sparse patterns at the point where its extra energy might be useful.  In other words, the worst of both worlds.   

 

#1 (.16”) – The Iron Fist

A lot of guys try to use #1’s as goose shot, and it’s almost as effective at that as #B.  However, as duck shot it is the ultimate.  Within certain limitations.  Actually, the real limit is on shot charge weight; you have to have at least 1.25 oz of shot and be careful about choke in order to maintain a useful pattern at 45-50 yards and get the full benefit of the #1 smack down.  It’s not as forgiving a shot size as #2, but somehow, it seems to kill them more dead. 

#2  (.15”) – The F150 of Steel Shot

By far the two most common steel shot sizes are #BB and #2: one for geese, one for ducks.  But if they were required to choose just one shell for all their waterfowling, most hunters would go with #2’s.  And in fact, many do just that.  Just like #BB, it may not shine its light brightly in all the corners of the wingshooting labyrinth, but it comes pretty close.  I’d say 85% of the time it works every time. 

#3 (.14”) – The Sportsman’s Shot Size

It’s not about the kill, but the chase—not the trophy but the race.  The true sportsman doesn’t go into the blind just to shoot ducks.  For him, it’s the experience; reveling in the beauty of the sunrise glinting off the water and the cupped wings.  Real success is measured by doing “it” right: decoys set just so, birds called in to the pocket, picking the drake.  And using just enough shotshell to provide a clean kill.  Now, to hear all the talk about how close doing “it” right gets your ducks, you’d think an improved cylinder choke and a 20 ga load of #6’s would be just enough (or #5’s?  is this there spot?).  However, you fail to realize that the sportsman has spent his time placing decoys just so, calling birds, and picking drakes, and hasn’t spent much time on range estimation.  So just enough shotshell must cover a margin of error of 15 yards; that means a modified choke and a 12 ga load of #3’s.  And it really isn’t a bad combo—it’s fairly easy to get a good pattern out to where most of us can actually hit the target, and the #3’s still have about 5 yards of effectiveness to go.  In a way, that extra can be thought of as Respect for the Ducks, which is what you want to be thinking of as you hang your limit on the strap, and not about how awesome it is to get a limit.  Because it's not about the kill, but the chase, etc.

#4 (.13”) – The Crippler

I really want to make #4 shot work.  Over the last 14 years, I’ve tried high velocity, low velocity, heavy shot charge, light shot charge, handloaded, factory—everything from 12 ga Remington Hypersonics to .75 oz 20 ga.  I even tried duplexing with #B (which is just funny).  But it never has worked for me.  The promise of a high pellet count bringing happiness has proven an empty one as I’ve crippled and sailed birds across three states.  My final judgement is #4’s are best used as ballast.  Or perhaps as a way to burn up precious components on the patterning board. 

#5 (.12”) -- ?

I’ve never used #5 steel, but I imagine it would have all the unbenefits of #4’s, just more so.  I’m not really sure how to try to use #5 steel.  Doves maybe?  Swatters? 

#6 (.11”) – The Steel Equivalent of #7.5 Lead

All steel shot sizes are divided into three parts:  those suited for geese, those suited for ducks, and the equivalent of #7.5 lead.  Back in the early 80’s, Tom Roster made a video advocating #6 steel for large ducks on the wing, and in the film, he piles up an impressive number of ducks at verified long ranges with the baby pellets.  Honestly, I think it’s more a demonstration of Tom’s skill as a wingshot then the pellets effectiveness for wingshooting.  Unless you hit the head, the pipsqueak just doesn’t have the energy to penetrate to the vitals at typical ranges.  I’ve shot a few ducks on the wing with #6’s, and though I never lost any, I never had a clean kill either.  If you have to use steel shot for clay targets, little birdies, or even to off a trapped woodchuck, #6 is the shot size for you.  And just as I wouldn’t consider #7.5 lead to be a waterfowling shot size, I wouldn’t include #6 steel on this list…. except were it not for its use as a swatter for crippled birds.  A bird on the water requires either a lot of juice to plow through the wings, back, and water to get into the body cavity, or a swarm of shot to hit its lollipop-sized CNS.  At 315 pellets to the ounce, #6 is the definition of a lollipop poppin’ proposition.    

 

Appendix A:  Shot size restrictions by state (based on what I could find on state websites as of last time I checked—last fall?)

Twenty states have a maximum non-toxic shot size: 2 at #F, 15 at #T, 1 at #BBB, 2 at #BB.  Three states also list a separate max for tungsten and bismuth shot.

·       Alaska – #T
California – #T
Connecticut – #BB steel, #2 tungsten or bismuth
Colorado – #T
Delaware – #T
Georgia – #F
Hawaii sucks (no waterfowl hunting)
Idaho – #T
Illinois – #T steel, #BBB tungsten or bismuth
Kentucky – #T (and no shells longer than 3.5”, oddly)
Maryland – #T
Massachusetts – #BBB
New Jersey – #T
Oregon – #F steel, #BB tungsten or bismuth
Pennsylvania – #T
Rhode Island – #BB
Tennessee – #T
Vermont – #T
Virginia – #T
West Virginia – #T
Wisconsin – #T

The rest of us get to live free or die. 

 

Saturday, January 31, 2026

Steel Shot Wad Capacity

After writing about set back in the LBC43 wad, I figured I'd take some photos of other "1-1/8 oz" steel shot wads I have on hand with various amounts of #1 shot for reference.     

Along with the readily available CSD118 and RSI 2.75" wads, I included the discontinued Ranger Plus.  I don't know how it compares to the Ranger Elite, but I suspect the dimensions are the same.  I also tried the Multi Metal 1275, which is currently the only MM wad still available and shares dimensions with the TPS 2.75".  

495 g of #1 steel
CSD118 / TUWSBL32

Ranger Plus.  

RSI 2.75"

525 g #1 Fe
CSD118 / TUWSBL32

Ranger Plus

RSI 2.75"

546 g #1 Fe
CSD118 / TUWSBL32

Ranger Plus

RSI 2.75"

Multi Metal 2.75"

601 g #1 Fe
Multi Metal 1275












Wednesday, January 21, 2026

Why BPI shouldn't be recommended to handloading newbs

 

When I decided to try handloading, the first thing I did was a google search.  That lead me to Ballistic Products Inc. and their 16 ga manual.  I bought it, read it, picked a load, and placed an order for some components.  The shells worked great as far as I could tell.  Then I wanted to try 12 ga, so I bought their Advantages manual, read it, picked a load, and placed an order for some components.  I couldn’t get the load to fit.  I tried several others in the book with the same results.  So I bought the Lyman’s book and moved on.  As it turns out, this has been a very common experience.  I know that a lot of folks have had a positive experience with certain BPI loads, and they are a decent source for components, but I for one refuse to recommend their data to new handloaders. 

BPI is dangerous for neophytes because:

1.       Loads are designed to sell adjuncts, not make good loads. 

This isn’t readily obvious to the untrained eye, but almost all of their loads have extras.  Why would you need an overshot card in fold crimped?  Or Buffer in a steel shot load?

2.       Some loads are literally impossible to build.  Some contradict others or ladder in nonsensical ways.  It makes it hard to believe that all the loads were properly tested—or even trial loaded. 

To illustrate my point, we turn to Status of Steel 21st Ed.  On page 122, there is a glaring example of an un-buildable load: #140205-5443.

            12 ga 2.75" Rio
            Rio 209
            40.0 g Alliant Steel
            LBC43
            492.2 g #2 steel
            1545 fps @ 10,900 psi

Sounds pretty sweet--let's try it out:

I'm even loading it down by 0.2 g

The wad seated without any pressure

The wad seated with as much force as I could get using the priming ram on the press.  Still not enough room for a proper crimp, but we'll proceed anyway.    

493.1 g of #2 steel, so 0.9 g too much

The cup will hold the shot easily.

I took my time trying to coax the hull closed before setting the final crimp ram deeper.  Sometimes that works.  This is as far as I got...

...before I crumpled the hull.

Anyone who has spent any time with Alliant Steel will tell you that 34 g is the most you can hope to cram into a 2.75" hull with that much shot--and even then only with the roomiest of hulls.  I would be highly surprised if BPI actually loaded this one up as it's written.  It's worth pointing out that none of this book's 12 ga 3" loads call for that much powder for a 1.125 oz load.  I can't imagine it is a safe load at 40 g... if you could get it to fit in the hull.  But since it's impossible, there's no fear.  

Moving on to page 126, we find three loads (#140221-5510, #140212-5466, and #140403-5586) that share the same basic components, but with different powder charges:

            12 ga 3.5” Cheddite
            Ched 209
            Alliant Steel
            BPGS + LBC50 + felt
            492.2 g steel shot + Original buffer
            The first load uses a 1/4” felt and 12 g of buffer whereas the second and third use 
            1/8” felt and 10 g of buffer.
                50 g powder = 1795 fps @ 11,700 psi
                52 g powder = 1795 fps @ 10,400 psi
                54 g powder = 1795 fps @ 11,600 psi

 Granted, the first load has an extra 2 grains of buffer, but even if the powder charges were the same, would that be enough to create 1,300 more psi over the second load?  And comparing the first and third load, an overall increase of 4 grains of powder DROPS the psi?  But questioning the pressures seems like quibbling in light of the fact that all three have the exact same speed even as the powder charges increase.  What?  How did that happen?  Either A) it’s a typo, or B) there is some component or process point not listed, or C) they never actually tested the three loads, but merely predicted the results.  Any of those is damning—how can you trust ANYTHING listed in the book?  The ship of confidence has hit the iceberg. 

3.       Logjam of data obscures problem loads.

BPI publishes a ton of different loads, which at first glance gives their books an encyclopedic appearance.  But on closer scrutiny, we find a few good loads, a few crap loads, and a bunch of meh.  I suppose it makes sense for a shotshell reloading company to adhere to a “spray and pray” methodology—you know, accuracy by volume—but the sheer volume of data makes it harder to pick out the worthwhile loads.  (I will say, at least they are far better organized now then they were 25 years ago.)

Again, page 126 of Status of Steel 21st Ed provides us with an example.  Here we see a ladder of four loads (#111031-3494, #111031-3495R, #111031-3495, and #111102-3504). They share the exact same components, differing only in amount of powder. 

12 ga 3.5” Federal PB
            Fed 209A
            Alliant Blue Dot
            X12X + CSD114 + 14CW12
            546.9 g #2-TT steel + 10 g Original buffer
            OS12
                39 g powder = 1415 fps @ 11,500 psi
                40 g powder = 1450 fps @ 11,700 psi
                41 g powder = 1500 fps @ 11,800 psi
                43 g powder = 1515 fps @ 12,000 psi

 Why would you list all four loads when just two would do?  If they listed the first and the third, at 1415 and 1500 fps respectively, would there really be someone biting his nails trying to figure out how to get one in the middle?  For that matter, why not stick with just one of them?  The only thing listing all four accomplishes is filling up the page.  (Also note that this ladder raises some of the same questions we asked earlier about the 3.5” Cheddite load.)

4.       Renaming of wads obscures sources, making cross-referencing harder. 

Baschieri & Pellagri (B&P) and Gualandi are two Italian companies that produce a ton of wads.  Various shotshell manufacturers across the globe use these wads, as well as handloaders.  Precision Reloading imports them, and though they use an inhouse part number, they are very clear about the source of the wads on their website.  BPI imports the same wads but renames them and passes them off as an exclusive product made to BPI’s exacting specs.  They have done the same with various other wads, hulls, and primers in the past as well.  This is a problem because it makes it harder to cross-reference BPI’s loads with other data sources.     

But lest anyone call be an un-evenhanded badmouther, let me be clear that there are some nice things to say about BPI. 

Give me a minute…

1.       More engaged and engageable then other merchants and data sources.

When was the last time you heard anything from Reloading Specialties?  And given that it took Lyman about twenty years to publish an updated shotshell reloading manual, it’s hard to believe they really care that much about our niche.  BPI on the other hand is routinely posting new data on their website, emailing sales flyers, or sending out press releases about the latest renamed product.

2.       Easy to navigate website.

Although now that it’s 2026, the fact I mention this is really an indictment of the stick-in-the-mud nature of the shotshell world.

3.       Confidence building word salads.

The likelihood that you’re going to hurt yourself handloading is a lot slimmer than most think.  Until you realize that, it’s comforting to have a smart sounding instructor (they did coin the term "shot bridging" after all (see S.O.S. 21st Ed. pg. 38)).

4.       Willingness to publish unusual shot charges etc.

Some of the combinations may leave you scratching your head about what purpose they might serve, like a 12 ga 3.5” loaded with 7/8 oz of steel #BB’s (BPI #160429-8033-BB), but I think the boys at Lyman would rather die then talk about deviating from the standards developed before the advent of unleaded gas.    

5.       Once you have an eye for suspicious loads, there are some good ones to add to the cross-reference data pool. 

 I'll always look at BPI's new data.  Sometimes I'll roll my eyes, but sometimes I'll scribble it down in my notebook.  

I want to be clear, I rail against BPI, not because I hate them, but because I want them to be better.  They could do a lot of good for the hobby if they would just be willing to weed out the bad data, be up-front about components, and cut down on the smoke screen.  If their first goal was to help customers load the best shotshells, rather than merely sell us as much stuff as possible, then I would gladly direct newbies their way.  But unfortunately, that isn't the case.  








Monday, January 12, 2026

Set-back

 How much shot can a woodchuck chuck?  Or, in less poetic terms, how far over the top of a wad can steel shot sit without causing problems?

When I first started reloading, all the books made a point of emphasizing the importance of making sure the steel shot was inside the wad of the loaded shell.  Steel being so much harder than lead, we have to be extra sure to keep it away from the barrel--otherwise, we'll end up with scoring or gouging.  Then I was given some pressure tested load data by some dude on the interwebs which used LBC43 and CSD118 for 1.25 oz of steel shot.  I was skeptical at first since, as is implied by "118", both wads are described as being designed for 1.125 oz.  My skepticism was soothed by finding that Kent used a CSD118 in one of their 1.25 oz Fasteel loads, and by reading RSI's blurb about how shot was forced back into the wad upon firing.  They said something like 1.5 rows of shot above the top of the wad was fine.  

And so, I've used "1.125 oz" wads for heavier loads without concern.  But every time I give details of a 3" load without a 3" wad, I get the same questions: "how do you get 1.25 oz of shot to fit into a 1.125 oz wad?"

So here's a little show and tell.    

I marked an LBC43 wad with red sharpie to make it easier to see through a clear hull.
LBC43 with lipstick applied

Here's how #1 steel sits in the wad:

494 g

523 g

545 g

603 g

[If you're the kind of person who likes to look at pictures of how steel shot sits in various wads, then you're in luck. Click here.]

I then loaded up each of the weights.  I normally list the loads I use, but these are untested, and since all I'm trying to see is how much shot the wad will contain, the other particulars don't really matter.  The setback should be happening as the wad is leaving the hull, and I can't imagine a variation of 100 or so FPS will make much difference at that moment.


LOAD A:
LBC43
494 g #1 Fe

LOAD B:
LBC43
523 g #1 Fe + plastic beads

LOAD C:
LBC43
545 g #1 Fe + plastic beads

LOAD D:
LBC43
603 g #1 Fe

I loaded up Ol' Bessy Lou, and let her rip.  I chose to use the end of the drive thinking (I don't know why), that finding the wads would be a cinch.  Because, obviously, finding a four little pieces of greyish plastic would be easy on snowy gravel.  


But eventually, they were located.  

The great thing about the LBC wad for this show and tell experience is its ribs provide a handy reference point when we look at the pellet indents.  

As you would expect, the 1.125 oz (494 g) load, for which the wad is rated, appears to have been contained with plenty of room to spare:
LOAD A: 494 g

LOAD A: 494 g

As does the 523 g load:
LOAD B: 523 g

LOAD B: 523 g

And the 545 g load:
LOAD C: 545 g

LOAD C: 545 g
...which is why I've always been comfortable using "1.125 oz" wads in 1.25 oz loads.  
(You may see a few faint, smallish dents near the top of the shot column in Load B and C.  Those are from the plastic beads I used as filler.)  

So how much more room is there in this wad?  I should have tried 575 g... but I didn't.  Instead, I went with 603 g (I don't know why).  Well, there certainly is not enough for 1.375 oz:
LOAD D: 603 g

LOAD D: 603 g
You can clearly see indents of the bottom half of pellets along the top edge of the wad, especially in the photo of the outsides.  

But check out this weirdness:


weirdness

I'm not really sure what this little black pimple is.  It's not caused by shot, since it's pressing in, and I can guarantee no stray shot got between the wad and the hull.  It's almost like a burn-through mark--I've seen those on the wad skirt, but never up the side like this.  
 
But what about the barrel?  After all, the whole raison d'être for the wad in a steel load is to protect the barrel from the shot.  At some point, and again I don't know why, I purchased an 18.5" barrel threaded for choke tubes for my 870.  I don't believe I have fired it EVER, but if I have, it would have been a handful of target loads.  I decided to use it for this test with a cylinder choke to see if there would be any meaningful scoring of the barrel. 

Here's the barrel before any shots:
Breech

Muzzle.  Note that the CYL choke has been used a decent amount. 

And here it is after the 603 g load and a single pass with a boresnake:
Breech
Muzzle

Maybe not the best photos.   

I was expecting more--which is to say, at least some--scratches.  The few lines in the photos are actually streaks of light.
Now, that's only after one shell.  And it's only the top layer or so of pellets, which were exerting the least amount of sideways force.  We can assume that by looking at the indents on the wads: they get deeper toward the base of the wad, implying the shot is pressing into the plastic with more force.  So how deep  would the scoring be if the lower layers made complete contact with the bore? 

So what do the above photos tell us about wads other than the LBC's?  Only that the rating on the bag isn't a hard and fast rule.  But I suspect that other wads will have different stretchieness characteristics, and therefore different overload limits.










Wednesday, January 7, 2026

How to Handload Steel Shot

 

In late November of 2011, I purchased a well-worn 16 gauge Ithaca Model 37 for around $175.  I also bought a box of the only two 16 gauge loadings at Cabela’s: Fiocchi Golden Pheasant 1-1/8 oz #5 lead, and Hevi Shot 1-1/4 oz #6.  I took it, the box of Hevi Shot, and a handful of Fiocchis out the next week and splashed down a gadwall and a wigeon.  Not willing to break the law every hunt, pay the ruinous prices for tungsten-based shot, or put up with the mediocrity of the big three’s steel shot loads (15/16 oz of #2 or #4 at ~1300 fps), I knew I had to start making my own ammunition.  Thus began my slow decline into a far more absorbing hobby. 

Without a proper mentor, I started by buying a Lee Load All II, a book from Ballistic Products Inc. and a pile of components.  Then I purchased an ancient MEC 400 Speedster in 12 gauge and more books and more components.  I poured over pellet count charts, ballistic tables, and load data agonizing over what would make the perfect shell.  I scoured internet forums for more information and slowly started chiming in on the see-saw debates, hair splitting, and bickering.  Then I got into metallic… then 10 gauge… then 20 gauge…   Now, I have half a truck bed full of shells, books, magazines, hulls, wads, powder, primers, shot, presses, bullet molds, tools, and random bits and bobs—enough crap to make more ammunition than I’ll use in what’s left of my lifetime.      

I’m no expert, but I have learned a decent amount along the way.  As I continue to prowl the interwebs, there’s always someone spouting out-of-date, unhelpful, or downright BAD information.  Usually, it’s something they’ve heard on the internet, or an opinion rooted in boomer nostalgia.  I feel compelled to help out.  As I said above, I didn’t have a mentor when I started—and I’m not sure if that has been a bad thing or not.  If I had had a guide, I’d have avoided a lot of dead ends, waste, and missed opportunities; then again, stumbling along has led me into some interesting side channels and eddies.  I’d love to give advice to anyone foolish enough to listen, but out of fear of ruining a possible spirit-journey of self-discovery, I’ll restrain myself to a few observations.  

First, not all gauges are as easy to handload for as the others.  Obviously, since the 12 ga is the most popular gauge, it has the most support in terms of components and data.  The 20 would probably be the next best supported.  The 16 and 10 gauges require more persistence and creativity.  The 12, and even more so the 10, are also easy because there’s enough room in the hull to make “normal” duck and goose loads. 

The following is a quick rundown of what you need to know to handload. 

                Data 

The most important consideration is your data source.  All data sources can be divided into three parts: published loads, internet hive-mind, and self-produced.  First, there are several companies that publish handloading guides and they don’t always agree.  Some are more stick-in-the-mud, some are more innovative, but they all have something worth reading.  The trouble is figuring out what that something is…  The prudent thing is to collect as many sources as possible and triangulate the good data.  I would start out with Lyman’s manual (specifically, the 5th Edition--unfortunately, the 6th is a little retrograde).  It’s fairly conservative, but trustworthy; if you stopped there, you wouldn’t be far wrong.  I’d also recommend supplementing Lyman’s with manuals from Reloading Specialties (RSI), Precision Reloading (PRI), and Alliant Powder.  Ballistic Products (BPI) publishes a lot of books, but upon not-too-close scrutiny, a lot of their data doesn’t make sense: too many components to fit in the hull, velocity and pressure values dropping off with increases in powder or being wildly different from other data sources, or just weird combinations (12 ga 3.5” hull with 1.125 oz of shot?).  They have some good loads, but it’s not the place for the beginner. 

The second route of information gathering is off internet forums, YouTube, and other social media.  Here there is a lot of good data—and a ton of bad.  Sifting the diamonds out of the coal tailings can make a BPI book look like the First Epistle to the Thessalonians, but it can be worth it.  The trick is to be conversant in the published data already.  That way, you can see the red flags before you go too far down Bubbas’s shotshell log ride.  There are a lot of guys who have a lot of knowledge and experience—just know that a lot of them are dying off, so get on the question-and-answer time while you can. 

Load data can be developed yourself—meaning, you can dream up a wildcat load and send it off to be tested at a proof house.  This is somewhat expensive and time consuming.  If you chose this path, you still at least need the other data sources for a starting point.  So just go ahead and buy the books and read them.  

                Tools

There are many ways to skin a cat, some more minimalistic (just use your teeth), some less so (operating room).  I once saw a prepper load a shot shell with a screwdriver and a candle, but I’d recommend a little more equipment as a minimum. 

1.        A good grains scale.  Get a good one—not some nameless Chi-Com rip-off.  A lot of smokeless powders don’t take up a lot of room but build pressure quickly.  A double charge of powder can have negative results; conversely, a half charge of powder could end in a wad stuck in the barrel, which can have even more negative results.  You must be able to confirm you powder drops. 

2.        Press.  The MEC 600 Jr is the F-150 of presses, but there are others.  And some old presses from the 50’s and 60’s can be retrofitted to work with plastic shotshells.  They’ve gotten pricy now, but used ones can still be found cheap(er).  If you’re intending to load non-tox, I’d stick with the single stage press.

3.        Shot and powder dippers (I use a teaspoon).

4.        Utility knife or shears for splitting wads and trimming hulls.

5.        Sharpie for marking shells and boxes. 

Alternatively, some folks forgo the press and buy a roll crimper.  The advantage is a lower capitol investment (assuming you already have a hand drill or drill press), since a high-end roll crimper costs $50-$60 whereas the cheapest press costs about $75 new.  The disadvantage is a lack of versatility, and more importantly, the requirement to only use new hulls.  (I know, this isn’t strictly true.  You can deprime and reprime with a punch, a mallet, and a block with a hole in it.  And for resizing, a MEC Supersizer resizes shotshells and isn’t a press, but it costs as much as a press.  Or you can get shotshell resizing dies for your metallic press… which is a press.  Or you can buy a resizing ring for the Lee Load All II and force it down over the brass and then off again, but this requires leverage from some kind of tool—some kind of “press”.  Conversely, if you can find an old Lee Load All kit or one of its Ukrainian rip-offs, you can resize with hand tools.)  

You’ll end up with a raft of small hand tools for preforming small tasks.  Magnets for catching primers, plumb bobs for flaring case mouths, scraps of wood and metal as spacers, punches for poking things… This is where the true individualism of the handloader shines.  

                Components

Hulls.   The body, the case, the SHELL of the shotshell, is nothing more than a plastic tube closed at one end with a paper or plastic plug.  That said, it is of utmost importance to know what kind of hull you’re using.  At the very least, it helps make you look like you know what you are doing, but it also will allow you anticipate problems with the fit of components.  There are many different brands, but they all fall into two main groups:  

Tapered.  These are mostly from target loads like Remington STS (same hull as Nitro 27, Gun Club, Game Load and Federal High Over All) and Winchester AA-HS (High Strength) or the old style AA-CF (Compression Formed).  These are generally best suited for target loads or some lead and bismuth field loads.  I wouldn’t recommend these for steel shot.  (There are some lighter steel loads for them, but the great advantage these hulls have for target loads, viz. reduced volume, is a decided disadvantage for steel shot.)  Do NOT use data for a straight-walled hull in a tapered hull.  First, it likely won’t fit very well, but if you do get it to fit, you can create some super high pressure. 

Straight.  Federal Gold Medal and Top Gun (new), Fiocchi, Cheddite, and Rio.  I’d also include Federal .090” base one-piece and Hi-Power paper basewasd hulls in this group; Federal has discontinued both the .090” base one-piece and the fiber basewad hulls in the recent past, but they’re still bouncing around.  These are all straight walled hulls with flat-ish plastic basewads.  These vary slightly in volume, but for all intents and purposes, load about the same.  Any stack height issues can be solved with a bit of felt or some such filler.  These are the most versatile hulls.  The main difference you’ll encounter with straight-walled hulls is the primer pocket diameter; the European primers tend to be a few thousandths larger than American primers.  So a Win. 209 will be loose in a Rio hull.  There are tools and techniques for tightening up the pocket if you feel the need to use eurotrash hulls.  Myself, I simply avoid Rio and Fiocchi hulls for the most part.      

It’s important to know that the name printed on the hull doesn’t necessarily mean anything.  Winchester has used Cheddite hulls, and Federal has used Rio’s, to name two examples.  And even within a company’s line up, names get thrown around onto whatever hull is in the way.  For example, Remington’s “Nitro Steel” uses a straight-walled hull with a .20” yellow or a .25” black plastic basewad; “Nitro 27” target loads use STS style hulls; and “Nitro Pheasant” heavy field loads either use an STS-style OR a straight-walled hull with a .20” yellow plastic basewad.  Always check the inside of the hull! 

It is also important to know that the length of a hull is nominal; manufacturers may cut them shorter to better fit their loading process.  In fact, for the most part, the 3.5”, 3”, and 2.75” hulls from a particular brand have the same basewad profile.

My suggestion would be to standardize on one hull brand.  This is, of course, something I have never done—and I probably never will.  But the simplicity of the idea seems wise.  My second suggestion is to take one of every new brand and type of hull you encounter and cut it in half lengthwise.  Keep these cross-sections for reference.  This is something I DO do and have found it to be very informative.  Here's some photos of hull cross-sections.

Primers.  You will hear guys refer to primers as either “hot” or “mild” or some such.  What they’re trying to describe is the brisance, or the shattering capacity of the explosive compound in the primer.  The “hotter” primers ignite more of the powder at once, and generally produce more chamber pressure.  This can be desirable under certain circumstances, say in cold weather or with harder to ignite powder.  Generally, it’s assumed that replacing a “hotter” primer with a “milder” one will lower PSI.  But you know what they say about assumptions…  This is a generally accepted ranking of the commonly available primers from hot to cold, but I have seen some place-switching on other lists.  

1.        Fed 209A
 Rio G-1000 (or maybe lower?)
 CCI 209M
 Ched CX2000
 Win 209
 Fio 616?
CCI 209
 Rem 209P

But there are also the Nobel Sport 688, Cheddite CX1000 and CX50, Fiocchi 617, and Wolf 209 primers that fit in somewhere.  And then there are old primers that still turn up like Alcan 220 MaxFire, Federal 209, Remington 57* and 97, CCI 197 and 109, and Winchester-Western 209 in the white box (which some claim are different from the current form).  Aaaaa….

AND, sometimes the “hotter” primer produces a lower PSI in a given load.  You can’t really count on primer heat rankings. 

If you’re loading lead target loads, it’s not such a big deal because there is data for just about every primer.  If you’re using Win AA hulls, WAA12 wads, and Red Dot for 1-1/8 oz trap loads, you’ll be able to use any primer with a simple adjustment to the powder drop a grain or two.  If you’re loading hunting loads, especially steel, you’ll most likely want mid to hot primers--Fed 209A, CCI 209M, Ched CX2000, or Win 209—since slower powders often require hotter primers to insure proper ignition.

Powder.  There are something like a million different powders, and about half have some use in shotshells.  But to simplify, you have fast, medium and slow powders.  Their use is relative to gauge, i.e. slow powders work for small bore target loads but large bore magnums.  You will find some data for almost all powders, but a few carry the brunt of the workload.  Stick with those powders if possible.  Unfortunately, periodically, global politics conspire to suck up the powder supply into artillery shells, and we handloaders have to make do with what we can get our hands on. 

For the best steel loads, Alliant Steel powder is king across all gauges, but it is hard to come by now.  There are several other powders that work, but some are hard to get, discontinued, or have limited data.  If you see these powders, buy them:

    Alliant Steel
    Blue Dot—hard to find, lots of data, but not as versatile as Steel
    Lil'Gun—not as efficient, limited data for 12 ga, but readily available.  Great 20 ga powder.
    Vv 3n38—available, some promising data, pricy compared to Hodgdon powders

These powders can be used for lighter 12 ga steel loads:

    Longshot
    Vv 3n37
    HS-6
    Pro Reach

Some folks have been working up some promising 12 ga loads with AA #9, Shooter's World Heavy Pistol, and Vv N110 as well.  

BPI is selling some Vectan powders to fill the steel niche: STL, STXL, and ST2XL.  Data is only just coming out for them.  

There are some discontinued powders that worked for steel to one extent or another, which you should buy if you run across them: 800x, 4756, Vv N105, Solo 1500, HS-7/571, and possibly others.

Wads.  Some wads are meant for lead (and can be used for bismuth), and others are meant for steel and tungsten shot.  Don’t use steel shot in lead wads.  The tricky part is the naming; there is no industry convention, and every manufacture or distributer is intent on using seemingly random collections of letters and numbers for their nomenclature.  This is compounded by the American importers of European wads, namely BPI and PRI.  For example, the Italian company, Baschieri & Pellagri, makes a 12 gauge wad for 1.125 oz of steel shot called simply “STEEL 32 Cal 12 H.7”.  BPI sells it as the “CSD118” and PRI as the “TUWSBL32”.  Just rolls off the tongue, don’t it?  It probably has other names too.  The only through this is to read the literature carefully, look at pictures, and ask folks who know.  Sorry.  

Each handloader seems to end up favoring one or two designs (myself, I tend to find the B&P wads the easiest to work with).  But there are decent loads for all of them.  The unfortunate thing is, despite the suppliers’ marketing blurbs, there’s no way to know which wad will work best in your shotgun and choke without trying them out.  You WILL end up with partial bags of various wads, so just be OK with that. 

Shot.  There’s not a lot to say here.  I haven’t noticed a difference between the various suppliers in terms of quality or performance.  The plated stuff is nice and shiny, but I don’t know that it matters to the duck.  I say get it where it’s cheapest.   

Fillers and Buffer.  In order to get a good crimp, you need to have the hull filled up to a certain point, however, some loads don’t take up enough space.  In that case, we use fillers made of bits of felt, cork, cardboard, seeds, cheerios, plastic beads, foam—basicly anything light weight and fairly smashable.  These fillers can be placed in different places in the hull for different effects: a gas seal or a nitro card between the wad and powder will raise the wad and shot up in the hull and may provide a better seal to keep powder gas from escaping; this can increase FPS and PSI.  A disc of felt or cork inside the wad under the shot can raise the level of the shot and add more cushion to the wad collum; this can lower PSI.  A felt, cork, or card on top of the shot can provide a nice flat base for the crimp (especially helpful with large shot); I don’t know that this has any impact on PSI, but some claim it can disrupt patterns. Loose beads or seeds can be added under or on top of the shot as spacers, but don’t have a meaningful impact on FPS, PSI, or pattern (as far as I know).  

Buffer is a fine grained powder used to fill in the spaces between the shot in the hopes of improving patterns.  This is generally only used in lead and bismuth hunting loads, though some data calls for it with steel and tungsten.  It will raise pressure in a shotshell significantly.  Some people swear that it improves patterns, but I am more than skeptical.  Just know that if the data calls for buffer, you can always safely delete it.  But do not add buffer to a non-buffered load. 

                Process:

This is the straightforward part. 

1.        Resize the brass

2.        Deprime (this usually happens at the same time as resizing)

3.        Reprime.  Make sure the primer sits flush in the hull.

4.        Add powder charge.  Be sure of the weight.

5.        Insert wad.  There is disagreement about how important wad pressure is.  It isn’t.

6.        Add shot charge.  Again, make sure of the weight. 

7.        Crimp.  It needs to be tight and flat (a slight dish is ok) with a slight inward taper, but not too deep.  A lot of guys are concerned about a swirl in the crimp, but this is more of a cosmetic issue.  Of far more importance is the depth—to shallow can lead to lack luster performance, too deep can cause excessive pressure.

Just follow the instructions that came with the press to set up a proper crimp.  If that doesn’t make sense, the interweb is full of tutorials on how to troubleshoot your particular machine.  Most presses are designed with lead target loads in mind, but if you’re loading non-toxic shot, a lot of the steps will happen off the press.  The large sizes of steel shot used for hunting and several of the powders used for them don’t meter very well through a charge bar and require hand weighing.  This usually isn’t a problem given the lower volume of hunting loads needed by most of us and the long off-season in which to load them. 

The best policy is to establish a rhythm to your loading and don’t rush.  You might use the stage method, in which you resize/de-prime all your hulls, then prime all of them, etc.  Or you might decide to send shells through the whole process start to finish one at a time.  The important thing is to do the same thing every time to avoid mistakes.  Part of your rhythm should be periodic quality checks: check the powder and shot charges, crimp depths, primer seating.  I’d say, start by checking the first ten shells, then another one or two every box.  Depending on your set up, you may have some drift in charge weights or crimp depth.  Just pay attention. 

                Suggested Loads?

Unfortunately, this all depends on what powder you have available. 

If you’re lucky enough to have Alliant Steel, The standard 12 ga 2.75” load, what most call the HG ( I prefer “The Iron Fist”), is:

12 ga 2.75” Cheddite
Cx2000
34 g Steel
CSD118
492 g #2 steel (you may have to remove a few pellets to make it fit)
~1450 fps @ <11,500 psi

 

The 3” version is similar:

12 ga 3” Cheddite
Cx2000
35 g Steel
B&P wad
1.25 oz steel shot
~1425 @ <11,500 psi.

 

You’ll note I’m soft on the fps and psi.  The reason is not some sort of blasé attitude toward safety.  Rather, I’m trying to draw attention to the un-uniformity of shotshell handloading.  I can follow a recipe from a reputable data source to the letter and still end up with different results.  The reason is lot to lot variation in componants, as well as variation in process especially crimp depth/tightness. 

If you’re looking to use powders other then Alliant Steel, I’d prowl about the various forums and make friends.  There’s actually quite a lot of info out there.  Especially here.  


Handloading: It is NOT a money or time saver.  It does NOT make you a better shot or lead to greater hunting success.  And it does NOT make you more attractive to women.  But it can be an enjoyable way to avoid working around the house. 

 

 

 

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