How to Stick Weld Steel: The Complete Beginner-to-Pro SMAW Guide

How to Stick Weld Steel: Why This Old-School Process Still Wins Jobs

It’s 7 a.m. and the wind is already gusting across the job site. The MIG gun that ran perfectly in the shop is sputtering uselessly, its shielding gas blown sideways. Your old tombstone buzz box and a handful of E7018 rods, though, are ready to weld a gate hinge that will outlive the truck parked next to it.

That’s stick welding in a nutshell: the process that keeps working when conditions get ugly, and the most forgiving steel-joining skill a beginner can own.

What You’ll Get From This Guide

Most people searching this topic aren’t chasing a physics lecture. They want a practical route from “I just bought a buzz box” to “I can lay a sound bead on mild steel.” That’s the promise here: plain-language instruction, real settings, and fixes for the mistakes that ruin early welds.

• What SMAW actually is — the arc, the flux, and the slag
• Gear, machine setup, and shop safety before your first arc
• Electrode selection: E6010, E6011, E7014, and E7018 (all classified under AWS A5.1)
• Amperage, polarity, arc length, and travel angle
• Striking, steadying, weaving, and restarting the arc
• Flat, horizontal, vertical, and overhead positions
• Defects, fixes, and how stick compares to MIG, TIG, and flux-core
• A 30-day practice plan to build real skill

Stick Welding, SMAW, and MMA: The Same Process

This guide uses the term “stick welding,” but the process has other names. Technically it’s SMAW — shielded metal arc welding — and in Europe and Asia you’ll often hear MMA, or manual metal arc. Same electrode holder, same flux-coated rod, same slag hammer at the end.

Why Stick Welding Still Wins in 2026

Walk onto almost any structural steel site, pipeline spread, shipyard, or farm shop and you’ll still find SMAW in daily use. Why? Because the equipment is dead simple, highly portable, and needs no shielding gas supply at all.

Stick electrodes carry their own shielding inside the flux coating. As the rod burns, the flux creates gas and slag that protect the molten puddle from the atmosphere. That’s why stick tolerates wind and outdoor conditions that leave a gas-shielded process like MIG coughing and porous.

It’s also a big industry. Published research puts the U.S. full-time welder workforce at roughly 500,000 people, with about 5.5 million welding-related jobs across Europe. Structural steel erection, pipeline tie-ins, shipbuilding, and maintenance repair all lean on SMAW daily — which is exactly why the skill still pays.

Gas-shielded MIG is wonderful indoors and horribly spoiled outdoors — one gust and your arc is full of porosity. Our MIG welding at home guide shows where that process shines. Stick lives at the other end of the spectrum: crude-looking, spatter-heavy, and completely unbothered by a 20 mph wind.

The Lesson Almost Every Beginner Learns the Hard Way

Picture the welder this guide is written for. They clamp a 1/8-inch E6013 rod into a cheap AC buzz box, strike an arc on a piece of 1/4-inch plate, and start dragging. The rod moves too fast and the machine is set too cold. Instead of a bead, they get a lumpy trail of metal sitting on top of the steel — then a burn-through hole on the next pass because they slowed down and cranked the amps without changing anything else.

Nothing was wrong with the machine. The rod angle, amperage, and travel speed simply weren’t talking to each other. By the end of this guide, that welder knows why — and can fix it in about ten seconds.

Ready to strike your first arc? Start with our complete guide to building real welding skills, then work through the sections below in order.

What Stick Welding Actually Is: The Arc, the Flux, and the Slag

Strip away the sparks and the noise, and stick welding — shielded metal arc welding, or SMAW — is a controlled electrical fire you steer by hand. The electrode holder clamps a consumable, flux-coated rod, and the machine pushes welding current through it. Touch the rod to the steel, pull back a fraction of an inch, and that gap becomes an arc that melts the rod, the flux, and the base metal all at once. AWS A3.0 defines the electrode as the component of the welding circuit through which current is conducted and that terminates at the arc, molten conductive slag, or base metal — a formal way of saying the rod is both the conductor and the filler.

Everything else about SMAW follows from that single fact: the filler, the shielding, and the slag all arrive through the same stick.

The Three Zones of Heat

When the arc lands, it creates three distinct regions:

• The arc itself — a plasma column thousands of degrees hot, where metal transfers as droplets.
• The molten weld pool — liquid steel that freezes in seconds into the bead.
• The heat-affected zone (HAZ) — base metal that never melted but got hot enough to change its grain structure.

The HAZ is where cracking, hardness, and distortion live. It’s why preheat and travel speed matter on thick or high-carbon steel, and a good reason to build consistent practice habits early.

Why SMAW Runs Constant Current

Stick welders are constant-current (CC) machines. As your arc length changes — and with a hand-held rod it constantly does — voltage swings up and down while amperage stays roughly fixed. That’s the genius of it: when the arc gets short and the rod dips toward the pool, voltage drops but current barely moves, so the rod doesn’t instantly blow through. Long arc? Voltage climbs and the puddle cools a touch. A constant-voltage MIG machine behaves the opposite way, which is part of why MIG welding at home feels so different from stick.

Slag: The Fire-Suppressing Sheath

Think of the flux coating as a fire-suppressing sheath wrapped around the arc. As the coating burns, it does several jobs in the same instant: it generates shielding gas that pushes atmosphere away from the pool, melts into a protective slag blanket over the cooling weld, stabilizes the arc, deoxidizes the pool, and can introduce alloying elements or iron powder for extra deposition. The slag isn’t trash — it’s a curtain that kept oxygen and nitrogen out until the metal froze.

That’s also why every bead must be chipped and brushed before the next pass. Leave slag in place and the next layer welds right over it, trapping glassy inclusions inside the joint. Slag entrapment is the classic beginner defect, and the fix is boring: chip, brush, inspect, then weld.

Electrode Anatomy: Core Wire vs. Coated Diameter

When an electrode is stamped “E7018” and measures 1/8 in., that’s the core wire diameter. The flux coating adds real thickness on top. Coating thickness changes current density, which is why a heavily coated E7018 runs at noticeably different amperage than a thin-coated E6013 of the same core size. Classification details and coating types are laid out clearly by Hobart Brothers.

One more invisible variable: moisture. Low-hydrogen coverings such as E7018 are limited to a maximum of 0.6 percent moisture as manufactured under AWS A5.1/A5.1M. Damp rods mean hydrogen in the weld and delayed cracking hours later. If polarity still feels abstract, the physics are the same ones covered in our guide to TIG welding polarity — electrons flow one way, and heat follows them.

Gear, Machine Setup, and Shop Safety Before Your First Arc

Stick welding rewards preparation more than any other process. You can’t out-technique bad cables, a loose ground, or a helmet that leaves you squinting. Before your first rod touches steel, get the machine, the leads, and the safety kit squared away — then practice becomes about your hands, not your gear.

The Machine: Constant Current, AC or DC, and Duty Cycle Reality

Stick welding runs on a constant-current (CC) power source, which holds amperage steady as arc length changes — that’s what makes SMAW so forgiving for beginners. You have three flavors: the traditional transformer “buzz box” (cheap, heavy, near-indestructible), the modern inverter (light, smooth arc, DC output), and engine-driven units for field work. AC-only machines weld fine, but DC gives you smoother arc starts and access to rods like E7018 on DCEP. A 200-amp inverter with DC output covers most home-shop steel work.

Then there’s duty cycle. A 225-amp machine rated at 20 percent duty cycle gives you roughly two minutes of actual arc time out of every ten. Blow past it and the thermal protector trips — usually mid-pass. For hobbyists running short beads on brackets and gates, that’s plenty. For long production runs, buy more duty cycle, not more amperage.

Cables, Clamps, and the Work Lead Rule

Your electrode holder (stinger) and ground clamp take a beating. Inspect both before every session: cracked insulation, exposed copper, or a loose connection means arc instability and a genuine shock hazard. Coil leads loosely, not over a sharp corner.

The rule that fixes half of all beginner problems: clamp the work lead to clean, bare metal. Paint, rust, and mill scale add resistance, and resistance shows up as a wandering arc and a hot clamp. Grind a bright spot, clamp tight, and keep the clamp close to your weld — long return paths invite arc blow.

Tools and PPE You Actually Need

Keep a chipping hammer and wire brush within arm’s reach — slag waits for no one. Add an angle grinder, clamps, a square, and a fire blanket. For your helmet, pick passive or auto-darkening; SMAW rods typically call for shade 10 to 13, and our guide to protective eyewear for welding breaks the ranges down by amperage.

Dress like the arc will spit at you, because it will. Leather jacket or apron, gauntlet gloves, safety glasses under the hood, leather boots, and hearing protection for grinding. Fit matters — a loose helmet leaks light, and thin gloves burn through fast. Set the station up properly with our welding facilities planning guide.

Grounding, Switches, and What OSHA Expects

OSHA’s arc welding equipment standard requires the machine frame or case to be grounded and a disconnecting switch or controller at or near each machine, and it caps open-circuit voltage for manual arc welding at 80 volts (100 volts for automatic or mechanized work). Most reputable machines are built to this, but verify before you buy used.

OSHA’s welding, cutting, and brazing rules bar welding in areas not authorized by management or where explosive atmospheres exist, and call for combustibles to be moved at least 35 feet (10.7 m) from the work where practical. Where they can’t be moved, you need a fire watch — and that watch must stay at least a half hour after the last arc.

Get the gear right and the safety habits automatic, and the arc becomes the easy part. For a structured way to build those reps, see our complete welding practice guide.

Choosing Stick Electrodes: How to Read E6010, E6011, E7014, and E7018

If there’s one skill that separates a stick welder who guesses from one who gets paid, it’s knowing exactly what rod to ask for at the supply counter. Every stick electrode carries its entire personality in a five-character code. Read it once and you’ve decoded tensile strength, welding position, flux type, and current requirements in seconds.

Decoding the AWS Classification, One Digit at a Time

Carbon steel stick electrodes for SMAW are classified under AWS A5.1/A5.1M, the specification defining chemistry, mechanical properties, and testing. Take the most common structural rod in the world — E7018 — and break it apart:

• E — Electrode, for arc welding.
• 70 — The weld metal must produce a minimum tensile strength of 70,000 psi (70 ksi). A 6010 rod delivers 60,000 psi; the number always tells you the floor, not the average.
• 1 — The “1” means all-position capable (flat, horizontal, vertical, and overhead). A “2” here means flat and horizontal only.
• 8 — The fourth digit identifies the coating and current type. An “8” is a low-hydrogen, iron-powder basic coating that runs on AC or DCEP.

That last digit is where most confusion lives, so memorize the common ones: 5 (cellulosic, DCEP only, like E6010), 6 (cellulosic, AC/DCEP, like E6011), 3 (rutile, AC/DC, like E6013), 4 (iron-powder rutile, like E7014), and 8 (low-hydrogen basic, like E7018). The same logic governs every family — Hobart Brothers’ electrode classification guide walks through the full digit-by-digit breakdown if you want a shop-floor reference.

The Workhorse Rods and What They’re Good At

E6010 is the pipeline root-pass rod: cellulosic coating, fierce arc action, and deep, narrow digging penetration that punches through fit-up gaps and contaminated steel. It runs on DCEP only, so it won’t work on a buzz box set to AC. The arc is violent and the slag thin, but on a root pass nothing beats it.

E6011 is E6010’s AC-capable sibling. That single change makes it the undisputed king of farm and ranch repair, because countless older machines are AC-only. It handles dirty, rusty, painted-over steel better than most rods — a genuine “clean it if you must, weld it if you won’t” electrode.

E6013 is the beginner’s best friend: a soft rutile coating that produces smooth, attractive beads, restarts easily, and forgives thin sheet where burn-through is the enemy. If you’re learning arc control, read our welding practice guide, load up on 6013s, and burn rods until the puddle makes sense.

E7014 adds iron powder to the rutile mix, boosting deposition rate significantly. The trade-off: it’s rated 2 (flat and horizontal only), and the heavy coating leaves stubborn slag.

E7018 is the structural standard: low-hydrogen basic coating, ductile weld metal, beautiful ripples, and — per AWS A5.1 — weld metal that must meet a minimum Charpy V-notch toughness of 20 ft·lbf at –20°F (27 J at –29°C). That toughness spec is why inspectors demand it on code work. Keep an eye on our 3/16 E7018 amperage guide for settings once you get there.

E7024 is the deposition monster: heavy iron powder, silky handling, enormous metal transfer — but flat and horizontal only. It’s for production fillets, not field repair.

Low-Hydrogen Rods Demand Dry Storage

Here’s the catch with E7018: the basic coating absorbs moisture from humid air, and that moisture drives diffusible hydrogen into the weld, opening the door to hydrogen-induced cracking. AWS A5.1 addresses this directly — low-hydrogen electrodes not adequately protected from moisture pickup should be held at 500 to 800°F (260 to 427°C) for 2 hours for reconditioning.

That’s why 7018 rods ship in sealed foil packages, live in rod ovens on real jobs, and carry suffix designations. H4 means less than 4 mL of diffusible hydrogen per 100 g of weld metal; H8 and H16 allow progressively more. Toughness suffixes like E7018-1 indicate mandatory low-temperature impact testing at colder temperatures.

A Dead-Simple Rod Selection Rule

When in doubt, let the job pick the rod:

• Dirty, rusty, or painted steel — or an AC-only machine: E6011
• Beginner practice and thin sheet: E6013
• Structural, code, and load-bearing welds: E7018
• Root pass on pipe: E6010
• High-deposition flat fillets in production: E7014 or E7024

Learn those five pairings and you’ll never again stand in front of a rod rack wondering what to buy.

Amperage, Polarity, Arc Length, and Travel Angle: Dialing In the Settings

Choosing the right rod is only half the battle. The moment you drag a stick welder out of the truck, four variables decide whether that rod lays down a clean, deep bead or turns into a popcorn mess of spatter: amperage, polarity, arc length, and travel angle. Understand how they interact, and reading the arc stops being guesswork and becomes a repeatable skill.

The Machine Sets Amps, Not Volts

Here’s the first thing to internalize: a stick power source is a constant-current (CC) machine. You dial in amperage, and the machine holds that current steady no matter how much your hand wobbles. You do not set voltage — arc voltage is a byproduct of arc length. Longer arc, higher voltage. Shorter arc, lower voltage. That single fact is why arc-length control is the biggest beginner variable in the process: you’re tuning voltage with your wrist.

Amperage governs heat input and penetration. Too little, and the rod stubs out with cold, sitting-on-top metal. Too much, and you’ll blow through thin stock, burn the flux coating, or watch the electrode glow cherry red an inch above the puddle. As a working starting point:

These numbers are starting points, not commandments. The manufacturer’s published data for your specific rod — and the AWS A5.1 specification that governs carbon-steel stick electrodes — always trumps a generic chart. The real test is a bead on plate. For a deeper dive into one common rod, see our 3/16-inch E7018 amperage guide.

Polarity: Where the Heat Goes

Most DC stick machines offer a choice of DCEP (electrode positive, or reverse) or DCEN (electrode negative, straight). Polarity changes where heat concentrates:

• DCEP sends more heat into the workpiece for deeper penetration. E6010 and nearly all low-hydrogen E7018 work is specified for DCEP — run it unless the manufacturer says otherwise.
• DCEN puts more heat at the electrode, giving shallower penetration but higher deposition efficiency. It has its place on thin material or fast fill passes — the same principle behind polarity for flux-core welding.
• AC splits the difference and excels at fighting arc blow — the sideways deflection caused by magnetic fields building in the workpiece, especially near ends and corners on DC. Counter it by moving the work lead, repositioning the ground clamp, or shortening the arc first; if it persists, switch to AC. The same physics shows up in our TIG polarity guide.

Arc Length, Travel Angle, and Speed

Rule of thumb: keep the arc gap roughly equal to the core wire diameter — about 1/8 inch for a 1/8-inch rod. Stretch that arc and you raise voltage, which widens the bead, ramps up spatter and fume, and reduces penetration as heat disperses before reaching the plate. Listen for it: a steady bacon sizzle is right; a loud crackle-and-pop is long.

For angle, drag the rod, don’t push it. A 10–20 degree drag angle (off vertical) keeps the slag trailing behind the puddle. Push too hard, or hold the rod near vertical, and slag races ahead of your pool and buries itself — congratulations, you’ve made a slag inclusion. Overhead work typically wants a steeper 0–15 degree angle.

Travel speed sets bead profile. Too slow gives a fat, humped, overheated bead. Too fast gives a thin, ropey weld with cold edges. Stop counting seconds and read the puddle: when it wets into both sides of the joint with a slight shine trailing behind the rod tip, you’re at the right speed. Rehearse the motion cold on plate first — a deliberate routine like the one in our welding practice guide builds muscle memory faster than any spec sheet.

Technique That Works: Striking, Steadying, Weaving, and Restarting the Arc

Settings get you in the ballpark; technique puts metal where you want it. Stick welding is a two-handed, whole-body skill, and the welders who look effortless are the ones who stopped fighting the rod.

Two Ways to Start the Arc

The scratch start is the beginner’s best friend. Drag the rod tip across the plate like striking a match, then lift to your arc length the instant it catches. It’s the go-to for cellulosic rods like E6010 and E6011 because the coating re-ignites readily.

The tap start is cleaner: tap the rod straight down, then pull up to arc length. Less spatter, tidier restarts, but easier to stick — which is exactly why pipe hands love it. To get the feel, a structured welding practice plan beats random plate time.

Sticking the rod means the tip welded itself to the steel. It happens when amperage is too low, arc length is too short, or you hesitate mid-strike. The fix: clamp off, twist the rod free with pliers, let it cool, bump the amps up about 5–10, and try again with a confident, quick motion.

Body Position, Angle, and Travel

Brace your stinger hand against something solid — your off hand, a weld table, a clamp — and keep the wrist relaxed. Travel comes from your forearm and shoulder, not your fingers flicking the rod. Lock your elbows in, keep a slight drag or push angle of about 5–15° depending on the joint, and let your whole body carry the bead. Direction matters by joint: on a flat butt, drag slightly into the puddle; on vertical-up, tip the rod up about 10–15° so gravity helps instead of fighting you.

Then watch the leading edge of the puddle — the bright molten boundary where you’re about to deposit metal. That edge, not the trailing slag, tells you whether you’re moving too fast, too slow, or holding a steady arc.

Your ears are a gauge too: a steady sizzle like frying bacon means good arc length, a harsh crackle means you’ve stretched too far, and a quiet stubbing drone means you’re too tight.

6010 Whip and Pause vs. E7018 Steady Drag

E6010 wants a whip and pause — a short forward whip, then back to the puddle — to manage the fast-freeze cellulosic flux. E7018 wants a steady drag or gentle weave, letting the iron-powder coating run at the right amperage without whipping the puddle cold.

One fabricator I know chased porosity on his E7018 beads for a week, blaming damp rods and dirty steel. The cure was embarrassingly simple: he’d been jamming the rod too tight, smothering the arc. Lengthening the arc just slightly let the flux burn and shield the puddle properly, and the porosity vanished.

Restarting, Tie-Ins, and Crater Filling

Chip every bit of slag before the next pass — trapped slag between layers is a leading cause of incomplete fusion and rejection in code work. To restart, re-strike about a quarter-inch ahead of the previous crater, back up to fill it, then move forward. Starting too far ahead and rushing into the old bead causes cold lap — lack of fusion at the tie-in. Let the crater cool a moment before chipping, or you’ll smear molten slag back into the joint.

Fill the crater before you break the arc with a quick circle or a short pause. A filled crater resists crater cracking, which is one reason restart technique matters so much on structural welds — the same principle the AWS A5.1 electrode standard and structural codes build around.

Weaving Limits and Stringer Beads

Weaves should stay within about two to three times the rod diameter; go wider and you lose heat control and risk slag entrapment. For structural work, stringer beads — straight, controlled passes — are usually preferred over wide weaves for consistent penetration and clean fusion. When in doubt, run a stringer and stack passes instead of reaching for a wide weave.

Positions and Joints: Flat, Horizontal, Vertical, Overhead, and What to Practice First

Every weld is a negotiation with gravity. That single fact explains why the same rod, machine, and joint can feel effortless on a bench and miserable on a ladder. Position is simply how the work sits relative to you — and how much help gravity gives your molten puddle.

The Four Positions: 1G/1F to 4G/4F

Designations use G for groove welds and F for fillet welds, a convention shared across AWS and ASME qualification work (that’s 1F, 2F, 3F, and 4F for fillets):

• 1G / 1F — Flat. The easiest. Gravity holds the puddle in the joint, slag floats up, and you can run a wide bead without fighting anything.
• 2G / 2F — Horizontal. Welded on a vertical face along a horizontal axis. The puddle sags downward, so a slight upward angle and faster travel keep it in line.
• 3G / 3F — Vertical. Up or down a vertical face. The puddle wants to drip, and heat input translates directly into sag or burn-through.
• 4G / 4F — Overhead. The hardest. You’re pushing metal against gravity, at your face, with molten droplets and sparks falling toward you.

Flat welding is the most forgiving: the puddle cools in place and you can see every ripple. Overhead is the least: you weld half-blind, sparks raining down, and any excess amperage turns your bead into a sagging icicle. Between them, horizontal and vertical teach the two skills that separate beginners from capable welders — puddle control and travel-speed discipline.

The Five Core Joints

Butt joints, where two plates meet edge to edge, are everywhere in pipe and structural steel. Lap joints overlap two pieces and show up in trailer repairs and sheet metal. T-joints form a stem meeting a plate and dominate brackets and frames. Corner joints meet at 90 degrees in box sections and tanks. Edge joints, or flanged edges, appear on thin sheet where a full groove would blow through. Lap and T-joint fillets make up most repair work, while butt and corner grooves carry structures and pressure boundaries. Fillet welds hide defects well, so watch the toes — an overlap defect loves to hide there.

Vertical-Up, Vertical-Down, and Overhead Tactics

For strength on vertical work, go up with E7018 — a slight weave, tight arc, and controlled heat push penetration into the root. For speed on thin material, run vertical-down with E6013 or E6010, accepting lower penetration. Check our notes on 3/16-inch E7018 amperage before committing to vertical-up settings. Most structural certification tests use vertical-up and overhead groove welds for exactly that reason.

Overhead demands respect: lower your amperage and shorten the arc, because the puddle is fighting gravity directly and sagging or burn-through is always waiting.

The next-to-last digit of an AWS A5.1 electrode classification indicates position capability: 1 means all positions, 2 means flat and horizontal only, and 4 means flat, horizontal, overhead, and vertical-down. That’s why an E7018 is intended for vertical and overhead work while an E7024 is a flat-and-horizontal rod only. See the official AWS A5.1 specification and Hobart’s electrode classification guide.

A Practice Curriculum That Actually Builds Skill

1. Run flat stringer beads on scrap plate until they’re uniform in width and height.
2. Stack beads side by side to build consistency and learn overlap.
3. Move to T-joint fillets, then horizontal.
4. Then vertical-up.
5. Save overhead for last.

Record bead width and height, then cut test coupons to inspect penetration — a standard training method in welding schools and AWS-based certification prep. Once the bead shape repeats across a full plate, cut across it every few inches and look for fusion at the root and sidewalls; a coupon that shows good penetration is worth more than a pretty surface. Practice one position at a time until the bead looks the same on both sides of the joint. For a structured schedule, pair this with our welding practice guide.

Common Stick Welding Mistakes and How to Fix Defects Fast

A shop once brought me a trailer repair that had already been rejected — the inspector’s note read simply “porosity, reject.” The welder was experienced. The rod wasn’t. He’d pulled E7018 from a can left open in a humid shop, and low-hydrogen electrodes absorb moisture fast. That damp flux drives hydrogen straight into the weld, and hydrogen means porosity and, worse, cracking under restraint. AWS A5.1 classifies those electrodes and specifies moisture limits for a reason; for structural work, keep them in a rod oven and re-dry per the manufacturer’s schedule. If you’re running E7018, our breakdown of 3/16 E7018 amperage settings, polarity, and technique keeps you in the right range.

Diagnose by Appearance Before You Grind Anything

Your eyes and ears are the first diagnostic tools.

• Bead shape: A ropey, tall crown says travel too fast or amperage too low. A flat, washed-out bead says too hot.
• Spatter pattern: Fine, scattered spatter points to a long arc or too much voltage. Big, globby spatter often means amperage too high or wrong polarity.
• Slag peel: Clean, curling, self-lifting slag is a healthy sign. Stubborn, glassy, welded-on slag hints at low amperage or a wandering arc.
• Sound: A steady, frying-bacon crackle is right. A hissing, popping, or hollow sound means the arc is too long.

The Defect Chart: Cause and Fix

Polarity mistakes masquerade as spatter and poor penetration more often than people admit; if you also run flux-core wire, our DCEN vs. DCEP polarity guide covers the same trap. And porosity from wind is underrated — dragging a shield or moving upwind often matters more than changing any setting.

Undercut is the defect inspectors circle first, because it reduces the effective throat of the weld and concentrates stress at the toe. It’s a common cause of rejection under visual inspection criteria in structural codes. Cure it by dialing back the amps, shortening the arc, and pausing at each edge so the puddle fills the groove your arc carved.

For a deeper look at the most misunderstood one, our guide to the overlap welding defect explains how it forms and how to repair it without cutting the whole joint out.

Arc Blow: A Magnetic Problem, Not a Technique Problem

Sometimes the arc simply refuses to go where you point it. Arc blow is magnetic deflection of the arc, and it worsens with DC current, long work leads, and welding near the end of a joint or into a corner. The fix is different from every defect above: switch to AC if the machine allows, shorten and reposition the work lead, move the ground clamp, or angle the electrode to push back against the pull. Distortion and cracking need the same patience — on restrained or thick steel, preheat and control cooling rather than fighting it with more heat.

Short Note: Fume control is part of defect-free welding too. NIOSH research shows local exhaust ventilation controls manganese and total fume exposure, while general mechanical ventilation alone may not be sufficient.

Every one of these fixes gets faster with reps — our welding practice guide covers how to build that muscle memory deliberately.

Stick vs. MIG, TIG, and Flux-Core: Which Process Should You Actually Use?

Most welders don’t pick a process because it’s “the best.” They pick the one that matches the job in front of them — metal thickness, wind, available power, and how fast the work has to move. When you compare these four arc processes honestly, the right choice tends to reveal itself rather quickly.

Portability alone can swing the decision. Stick welding only needs a machine, a lead, and a rod. MIG and TIG, on the other hand, require shielding gas and far more gear, which drastically limits how easily you can pack up and work on a remote site or up a ladder.

Flux-Core: Stick Welding’s Continuous Cousin

Self-shielded flux-cored arc welding uses a tubular wire whose core supplies both the shielding and the slag — essentially a continuous stick electrode. This makes it perfect for outdoor structural work where wind would instantly blow away a gas cloud. Swap to gas-shielded flux-core and deposition rates climb drastically, which is exactly why fabrication shops rely on it for heavy plate work. If the no-gas workflow sounds appealing to you, our gasless MIG welding guide will walk you through the setup.

MIG: Fast and Friendly, But It Hates Wind

Gas metal arc welding requires an external shielding gas supply, so it struggles heavily outdoors without extra shielding measures. However, in a clean, still shop, it’s far faster and much easier to control on thin material than stick welding. Just be sure to keep your consumables fresh — worn contact tips create just as many MIG defects as poor technique, as our contact tip welding troubleshooting guide thoroughly explains.

TIG: The Quality King With a Slow Hand

Gas tungsten arc welding offers unmatched control and cleanliness, but it comes with the slowest deposition rate and highest operator skill requirement of the four processes. It’s ideal for thin sheet, tubing, and cosmetic welds, but it’s a poor choice when a truckload of plate needs to be completed by Friday.

Polarity Trips Up Beginners — Here’s the Short Version

Stick usually runs electrode positive (DCEP) for a stable, digging arc, while self-shielded flux-core typically runs DCEN. MIG runs DCEP with solid wire, and TIG runs DCEN on steel but AC on aluminium. Get any of these reversed, and you’ll spend more time chasing porosity, spatter, and mystery lack of penetration. For a more in depth breakdown, check out our guide to polarity for flux core welding.

Code Acceptance Matters Too

Under the AWS D1.1 Structural Welding Code—Steel, SMAW and FCAW are long-established, widely prequalified processes with well-documented procedures, which is why structural fabricators continue to rely on them. Filler metal grades are governed by the AWS A5.1/A5.1M specification, so an E7018 rod means the exact same thing to every inspector on the job.

The Decision Framework

• Heavy wind or no power nearby, field repair → stick.
• Production shop on clean steel → MIG.
• Thin sheet and cosmetic welds → TIG.
• High-deposition structural outdoors → self-shielded flux-core.

On production jobs, it’s important to remember that deposition rate and duty cycle — not weld appearance alone — often determine the winning process, as labour cost tends to dominate the total weld cost. Whichever one you choose, deliberate welding practice will always beat raw hours every time.

Stick Welding Safety, Fume Control, and a 30-Day Practice Plan to Get Good

It’s 7 a.m. again, the wind is gusting, and the only machine that fired up was the old tombstone. That reliability is exactly why stick welding is worth mastering. However, the very conditions that make it indispensable also make safety non-negotiable.

Fume Control and Respiratory Hazards

The plume you see rising off the arc is a cocktail of fine metal particles and gases. Chief among them is manganese, a common alloying element in electrodes. According to NIOSH, the agency recommends an exposure limit of 1 mg/m³ as a time-weighted average and 3 mg/m³ as a short-term exposure limit for manganese, while the OSHA 1910.252 permissible exposure limit is a 5 mg/m³ ceiling. The ACGIH goes much lower, recommending 0.02 mg/m³ respirable and 0.1 mg/m³ inhalable to reflect newer neurotoxicity research.

A NIOSH study found that welders exposed to low levels of manganese (below 0.2 mg/m³) performed more poorly on tests of brain function and motor skills. Beyond manganese, NIOSH has identified welder’s anthrax, a rare but serious illness, with research suggesting metal fume exposure may increase susceptibility to lung infection. For this reason, proper ventilation and respiratory protection are critical, especially in tight quarters.

When working indoors, rely on local exhaust ventilation. For outdoor jobs, work upwind and use a respirator approved for welding fumes when controls cannot reach the limits. Setting up welding facilities with these controls in mind will protect you for the long haul.

Personal Protection and Electrical Safety

The arc emits intense UV and IR radiation, so you must shield everyone in the vicinity. Invest in quality protective eyewear, a properly shaded helmet, flame-resistant clothing, and leather gear. Never leave bystanders unprotected.

Electric shock is another silent threat. Avoid wet gloves, damp concrete, or damaged cables, as these drastically increase risk. Follow OSHA 1910.254 for safe machine use. Lastly, be vigilant against burns from hot slag, fire from sparks, and combustible materials nearby.

Your 30-Day Practice Plan

Safety gives you the freedom to practice, and consistency builds skill. Lean into welding practice with this realistic timeline:

• Week 1: Flat stringers on clean plate. Focus on arc starts, proper arc length, and reading slag. Aim for clean, consistent beads.
• Week 2: Pad beads and joint fit-up. Work on restarting without cold starts and uniform deposition, tracking your amperage for your electrode.
• Week 3: T-joints and horizontal fillets. Pay extra attention to tie-in and penetration while avoiding issues like overlap defects.
• Week 4: Vertical-up, overhead, and destructive testing of your coupons. Bend, break, or section them to judge fusion and porosity.

The Path Forward

As you progress, consider seeking formal AWS-based training or certification, especially for structural work. Most welders require several weeks to a few months of shop time before tackling code-critical jobs.

Back on that wind-blasted job site, with your gear safe, your arc stable, and your skills sharp, the process that works when nothing else does is worth every minute you invested. Keep going.

Frequently Asked Questions

What is the easiest stick electrode for a beginner to learn on?

E6013 is generally the most forgiving rod for beginners: it restarts easily, runs on AC or DC, produces a smooth bead, and tolerates a less-than-perfect arc length. Many instructors start students on 1/8-inch E6013 on flat plate, then move to E6011 and E7018 once arc control improves.

What amperage should I use for 1/8-inch stick electrodes on mild steel?

As a starting point, 1/8-inch E6011 typically runs about 80–110 amps, 1/8-inch E6013 around 90–120 amps, and 1/8-inch E7018 around 110–140 amps. Always confirm with the electrode manufacturer’s data sheet and fine-tune by running test beads on scrap of the same thickness.

Should I use DC positive, DC negative, or AC for stick welding steel?

DCEP (electrode positive) is the default for most carbon steel stick welding, including E6010, because it gives deeper penetration. DCEN is used when you want more heat at the electrode and a shallower, wider bead, while AC is a good compromise for arc blow problems and works with rods like E6011, E6013, and E7018.

Why does my stick electrode keep sticking to the plate?

Sticking usually means the amperage is too low for the electrode diameter, the arc was struck with too much downward pressure, or the rod is a low-hydrogen type that is hard to re-ignite when cold. Turning the amps up slightly and using a quick tap or scratch motion fixes most sticking problems.

Can I stick weld outdoors in the wind?

Yes — that is one of stick welding’s biggest advantages. The flux coating generates its own shielding gas and slag, so light to moderate wind does not destroy the weld the way it disrupts gas-shielded MIG welding. In very strong wind, build a simple windbreak to protect the arc and the cooling bead.

Do I really have to chip the slag between every pass?

Yes. Slag that is left on the surface will be trapped inside the weld when you run the next pass, creating slag inclusions and lack of fusion. Chip with a chipping hammer, then wire-brush or grind the bead before striking the next arc, especially on multi-pass structural welds.

Is stick welding stronger than MIG welding?

Strength depends on filler metal, procedure, and technique more than on the process itself. A properly executed E7018 stick weld routinely meets 70 ksi minimum tensile requirements and is fully accepted in structural codes, while a poorly run MIG weld with cold lap can fail regardless of process.

Is stick welding dangerous for my lungs?

Welding fume contains metal oxides including manganese, and NIOSH has documented neurological and respiratory concerns for welders. Use local exhaust ventilation or fume extraction at the arc, wear a properly fitted respirator when ventilation is inadequate, and never weld in a confined space without forced ventilation.

Authoritative Sources & Further Reading

• https://www.osha.gov/laws-regs/regulations/standardnumber/1910/1910.252
• https://www.osha.gov/laws-regs/regulations/standardnumber/1910/1910.254
• https://www.osha.gov/chemicaldata/501
• https://www.cdc.gov/niosh/welding/about/index.html
• https://www.cdc.gov/niosh/topics/manganese/
• https://www.cdc.gov/niosh/npg/npgd0379.html
• https://stacks.cdc.gov/view/cdc/187775
• https://pubs.aws.org/Download_PDFS/A5.1-A5.1M-2012PV.pdf
• https://webstore.ansi.org/standards/aws/awsa51m2025
• https://www.hobartbrothers.com/resources/technical-articles/electrode-classification/
• https://pmc.ncbi.nlm.nih.gov/articles/PMC7174571/