How to Stick Weld: The Complete Beginner’s Guide to SMAW

Introduction: Why Every Welder Should Learn Stick Welding

You finally bought a stick welder, clamped a rod in the stinger, and pulled the trigger on the arc — only to have the electrode weld itself to the plate, then blow spatter everywhere when you broke it loose. If that sounds familiar, take a breath. Every stick welder on the planet has lived that exact moment.

Sticky rods, wandering arcs, and molten BBs raining onto your boots are not signs that you bought the wrong machine or that you lack talent. They are the normal first steps of learning a process that rewards small adjustments in angle, arc length, and amperage. Get those three things roughly right, and stick welding becomes one of the most satisfying and forgiving skills in metalworking.

What Stick Welding Actually Is

Stick welding is formally known as Shielded Metal Arc Welding (SMAW), or Manual Metal Arc (MMA) in much of the world. It is one of the oldest and most widely used arc processes, and it earns that staying power through simplicity: a power source, a lead, a stinger, and a flux-coated electrode. That is the entire setup.

The arc itself burns at roughly 6,500 degrees Fahrenheit (about 3,600 C). That heat melts both the electrode and the base metal into a shared weld pool, which solidifies into the joint. The magic is in the coating: as the flux burns, it generates its own shielding gas and leaves a slag layer that protects the cooling metal.

Why It Still Matters

That self-shielding quality is exactly why stick welding remains the go-to for pipeline root passes, structural steel, repair work, and dirty or rusty metal. You can drag a stick machine to a muddy job site, weld on weathered steel, and still lay down a sound bead. Gas-shielded processes like MIG and TIG struggle in those same conditions, because wind scatters the shielding gas.

It is also one of the most honest processes you can learn. When a stick weld goes wrong, the bead tells you why: too much spatter means the arc was too long, a lumpy profile points to a travel-speed error, and porosity often means you dragged the slag instead of letting the arc clean the puddle. Learning to fix those problems teaches you more about heat and arc control than almost any other process, which is why structured welding practice on scrap plate pays off so quickly.

This guide walks you through the whole journey: how the arc works, what equipment you need, how to decode electrode numbers like E6013 and E7018, how to set polarity and amperage, strike and hold an arc, weld out of position, and fix the defects you will inevitably produce. We also lean on established references, including OSHA’s welding and cutting regulations and guidance from AWS, so the advice here is grounded in real industry practice, not garage legend. By the end, you will understand your machine well enough to run a stable bead, control spatter, and stop gluing rods to the tabletop.

How Stick Welding Works: The Science of SMAW

Stick welding, formally called shielded metal arc welding (SMAW), is one of the oldest and simplest arc processes in the shop. But simple doesn’t mean crude. Once you understand what’s actually happening at the tip of that rod, the process stops feeling like guesswork.

The SMAW Circuit, End to End

Every stick weld runs on a closed electrical loop. It starts at the welding machine, travels out through the electrode lead to the electrode holder (the stinger), through the electrode itself, jumps the small air gap to the workpiece as an arc, and returns through the work clamp and work lead back to the machine. Break that loop anywhere and the arc dies.

The arc is the star of the show. It’s a sustained electric discharge that melts the base metal, melts the electrode tip, and produces the intense heat that fuses everything together. Your job as the welder is to hold a steady arc length and travel speed so the heat stays balanced.

The Electrode Wears Two Hats

Here’s the detail that trips up beginners: in SMAW the consumable electrode serves two roles. It carries the welding current that creates and sustains the arc, and it also supplies the filler metal that actually joins the workpieces. The rod is both conductor and material. As you drag it along the joint, it shortens, which is why you constantly feed it downward to hold a steady arc.

That’s also why every electrode has a flux coating baked around a metal core. The core is the filler; the coating is the chemistry that makes the weld possible in open air.

Shielding Gas and the Slag Layer

When the arc ignites, the flux coating vaporizes and burns. That reaction forms a cloud of shielding gas around the molten weld pool, pushing away the oxygen, nitrogen, and moisture that would otherwise cause porosity and brittle welds. The remaining flux melts, floats to the surface, and solidifies into a slag layer that blankets the cooling bead and protects it as it freezes.

That slag is protective, not permanent. Before you lay another pass, chip it off with a chipping hammer and scrub the bead with a wire brush. Skip that step and molten slag can get trapped inside the next pass as a slag inclusion, a hidden defect that may crack under load. Complete interpass cleaning is non-negotiable.

How SMAW Compares to Other Arc Processes

Against other arc methods, SMAW is the most self-contained but the slowest to lay metal. Deposition rate is moderate, and it drops further from two factors: stub loss, the unusable leftover when a rod gets too short to hold, and the constant stopping to change electrodes every few inches. Wire-fed processes like gasless MIG (flux-cored) feed continuously, while automated systems such as robotic submerged arc welding are built for high-deposition, heavy-duty work.

Even so, SMAW’s gear is minimal and tough, and it welds dirty, rusty, or painted steel better than most processes. For a beginner learning to read an arc, that toughness is a gift. Bead after bead, welding practice teaches heat control fast.

Typical Operating Parameters

SMAW runs on either direct or alternating current across a wide window, typically 20 to 350 amps and 20 to 35 volts depending on rod diameter and material thickness. Current type and polarity change how the heat is divided between the electrode and the work, which affects penetration and how smoothly the rod runs. The principles behind TIG polarity (DCEN, DCEP, and AC) apply here too, and ESAB’s guide to polarity in stick welding covers the electrode-positive versus electrode-negative basics directly.

Equipment and Setup: What You Need Before You Strike an Arc

Before you worry about bead technique, make sure your machine, cables, and bench aren’t working against you. Almost every beginner problem, from a rod that sticks constantly to a breaker that trips mid-pass, traces back to gear that’s undersized or wired wrong.

AC Buzz Box vs. DC Inverter

Stick welders come in two broad families. The old transformer-style AC buzz box is cheap and nearly indestructible, but it’s heavy and limited: it runs E6011 and E6013 acceptably yet struggles to hold a smooth arc on low-hydrogen rods like E7018.

A modern DC inverter is the smarter first purchase. A 160–200 amp DC inverter with dual-voltage input is widely recommended for beginners because it runs E7018 and E6011, stays portable, and can plug into a standard garage outlet or a 240V circuit when you need more power. The smoother DC arc also makes learning noticeably easier, and an inverter typically weighs a fraction of a transformer.

Duty Cycle and Input Power

Duty cycle is the number of minutes out of a 10-minute period a machine can weld at a given amperage before it must cool. A 160A-class inverter may offer roughly 20% duty cycle at 120V and 30% at 240V. In plain terms, 20% means two minutes of welding followed by eight minutes of cooling, so budget your passes and let the fan catch up.

Check your input circuit before buying. Many dual-voltage inverters draw around 20 amps at 120V, which pushes a standard 15A household breaker. Know your outlet’s rating and never run an undersized extension cord.

Beyond raw output, inverter machines add features that flatten the learning curve. Hot start briefly boosts current to help the rod light without sticking, arc force (often called dig) regulates current as you push the rod into the puddle, and anti-stick cuts power when the electrode shorts to the plate.

Core Accessories

• Electrode holder (stinger) sized to your cable and amperage range.
• Work clamp and matching ground cable, kept clean and spatter-free.
• Cables sized for the current; quick connect leads help you swap fast.
• Chipping hammer and wire brush for slag removal between passes.
• A steel table that’s grounded and clear of flammables.

Skip the hammer and brush and slag gets trapped between passes, one of the most common causes of weld inclusions. Keep the stinger jaws tight, too; a loose grip overheats and arcs inside the holder. Planning the space matters just as much: a thoughtful shop layout keeps fumes, sparks, and clutter contained instead of spreading them across the room.

Stick-Specific PPE

Stick throws more spatter and UV than most processes, so dress for it: leather gauntlet gloves, a leather jacket or sleeves, an auto-darkening helmet at shade 10–11, safety glasses underneath, and steel-toe boots. Fit is part of the protection, too. Gloves should overlap your jacket cuffs, and a cotton cap keeps spatter out of your collar and hair. Learn what eyewear to wear and why before your first arc.

OSHA Rules and Grounding

OSHA 1910.254 sets baseline equipment rules. Electrode holders not in use must be placed so they can’t contact people, conducting objects, fuel, or compressed gas tanks, and splices in electrode cable within 10 feet of the holder are prohibited. The standard also says you shouldn’t coil or loop the electrode cable around your body, and the work lead must be firmly attached with magnetic clamps kept free of spatter.

Good grounding practice reinforces that. Clamp the work lead directly to clean bare metal, not painted or rusty surfaces, and keep the connection close to your weld so current doesn’t wander. Route cables where they won’t be run over or snagged. When you’re ready to build real skill, pair solid setup with a structured practice plan.

Decoding Stick Electrodes: E6013, E6011, E7018, and More

Walk down the electrode aisle at any welding supplier and you’ll see rows of rods stamped with cryptic numbers. That code isn’t random. It’s a standardized language defined by the American Welding Society’s AWS A5.1 specification, and once you can read it, choosing the right rod for a job becomes a two-second decision instead of a guessing game.

Reading the AWS A5.1 Code Digit by Digit

Take a rod like E6013 and break it apart:

• E stands for electrode. Every SMAW rod starts with this letter.
• 60 is the minimum tensile strength in thousands of psi, so E60xx delivers at least 60,000 psi of tensile strength.
• 1 is the position: 1 means all positions, 2 means flat and horizontal, 3 means flat only, and 4 means flat, horizontal, vertical-down, and overhead.
• 3 is the flux coating type, and it tells you which current the rod runs on.

Those last two digits are where beginners get tripped up, because they dictate both where you can weld and which polarity your machine needs. Numbers climb from there, too: E70xx, E80xx, and E110xx cover progressively stronger steels, so match the rod’s tensile rating to the base metal rather than grabbing the strongest option on the shelf.

The Four Rods You’ll Actually Use

Most hobby and light-fabrication work is handled by four electrodes. Here’s how they line up:

E6013 is the friendly all-rounder. It strikes easily, produces a soft, low-spatter arc, and runs on AC, DCEP, or DCEN. It’s the rod most starter kits ship with, ideal for clean sheet metal and light structural joints.

E6010 uses a cellulosic sodium coating and runs DCEP only. Its deep, forceful arc digs straight through rust and mill scale, which is why it’s the classic choice for pipeline root passes where penetration matters more than looks. E6011 is its friendlier cousin: it also tolerates dirty, rusty, or poorly fitted metal but runs on AC or DCEP, making it a favorite on AC-only machines.

E7018 is the low-hydrogen workhorse. “Low-hydrogen” means the coating is engineered to keep moisture out, so the weld metal absorbs far less hydrogen, the main driver of cracking in high-strength steel. It runs on DCEP or AC and lays down high-strength, impact-tough beads for structural and code work. The trade-off is storage: exposure to air lets E7018 absorb moisture, so keep it in a sealed, heated rod oven and re-dry rods that have been left out. For exact dial-in numbers on the heavy sizes, see our guide to 3/16 E7018 amperage.

One more thing: polarity isn’t a preference, it’s physics. DCEP concentrates heat at the workpiece for deeper penetration, while DCEN shifts heat toward the rod for lighter penetration and higher deposition. If you’re ever unsure which way to hook up, ESAB’s guide to polarity in stick welding covers the basics cleanly, and our own piece on TIG polarity explains the same principles for a different process.

Matching Electrode Diameter to Metal Thickness

Thicker rods carry more amperage and lay down more metal per pass, so they suit longer, heavier joints. When in doubt, grab a rod one size smaller than the plate suggests: undersized rods can weld thick metal with multiple passes, while oversized rods just burn through thin stock. Practicing on scrap is the fastest way to internalize which rod feels right, and our welding practice guide walks you through a structured plan.

Get the rod right and half your welding problems disappear before you even strike an arc.

Polarity and Amperage: Dialing In the Settings

Two dials decide whether your bead looks like a stack of dimes or a pigeon dropping: polarity and amperage. Get them right and the arc behaves; get them wrong and you fight spatter, sticking, and cold lap for the whole session. The good news is the rules are simple once you understand what the current is actually doing.

The Three Polarities in Plain Language

Polarity is just which cable the electricity leaves through. Flip the leads and you change where the heat concentrates. In stick welding you have three options:

• DCEP (reverse polarity): electrode positive. Electrons flow from the work to the electrode, so the workpiece absorbs more heat. That means deeper penetration, and it’s the standard setting for E6010, E7018, and most stainless electrodes.
• DCEN (straight polarity): electrode negative. The electrode takes more of the heat, giving shallower penetration but a higher deposition rate. Used on thin material with E6013 and on some iron-powder rods.
• AC: the current alternates direction, so penetration falls between DCEN and DCEP. It reduces arc blow at high amperage on heavy plate and offers an inherent cleaning action.

Which polarity does your rod demand? Check the box or the data sheet. E6011 runs on AC or DC, E6013 runs on either, but E7018 is a DC rod (mostly DCEP) unless you buy the AC-rated version, and stainless rods are nearly always DCEP. Getting this wrong is one of the fastest ways to make a rod stick or run rough; ESAB’s beginner’s primer on polarity in stick welding is a handy reference.

If you’re arriving from another process, the logic carries straight over. Our guide to TIG welding polarity and the breakdown of DCEN vs DCEP for flux-core both show the same tradeoff: DCEP pushes heat into the work, DCEN pushes it into the electrode.

The One-Amp-Per-Thousandth Rule

A rough starting point for any new setup: 1 amp per 0.001 inch of electrode core-wire diameter. So a 1/8 inch rod starts around 125 amps. Measure the metal core, not the flux coating, since the coating is only there to shield the arc.

Treat the chart as a launchpad, not gospel — the manufacturer’s data sheet is the final word. If you want to go deep on one common rod, our article on 3/16 E7018 amperage covers settings, polarity, and technique in detail.

Position Changes Everything

For vertical-up and overhead, the molten puddle wants to sag or drip, so reduce amperage by about 10–15% below your flat setting. The colder, faster-freezing puddle stays where you put it. Flat and horizontal welds can run hotter because gravity is on your side.

Arc Blow and Tuning by Ear

Arc blow is the arc wandering or snapping sideways because magnetic fields push it around. It shows up during DC welding, especially above 250 amps, with an excessively long arc, an unfavorable electrode angle, or poor work-cable placement. To fight it, switch to AC, shorten the arc, adjust your angle, or move the ground clamp so the current path changes.

Beyond the numbers, let the arc tell you. A steady crackle and a puddle that wets out means you’re dialed in. Too few amps gives a lumpy, towering bead riding on top of the plate; too many gives a wide, flat, undercut bead with heavy spatter. Nudge in 5-amp steps.

Dial all of this in before you blame your hands. Once the settings are right, the real skill-building begins, and our welding practice guide lays out a sensible plan to burn rods with purpose instead of random hood time.

Striking and Controlling the Arc: Technique That Makes Beads

Your machine is dialed in and a fresh rod is in the stinger. Now comes the part that separates a sputtering mess from a clean bead: starting the arc and keeping it under control. Everything here comes down to two skills you can practice on a scrap plate — starting cleanly and steering the puddle.

Two Ways to Start an Arc

There are two common arc starts. The scratch start drags the electrode across the plate like striking a match — quick, familiar, and easy on thinner material. The tap start touches the rod straight down and lifts it about an eighth of an inch; it’s cleaner once you’ve got the feel for it, but it takes a lighter touch.

Whichever you choose, the goal is the same: touch, pull back to arc length, and go. Hesitate and the rod freezes to the plate.

Arc Length: The Sound Tells You Everything

Arc length is the gap between the rod tip and the molten metal. The ideal length is roughly one core-wire diameter — for a 1/8-inch rod, about 1/8 inch. A correct arc length produces a steady frying-bacon crackle. Too long and you lose the crisp sound, get excess spatter and an unstable arc. Too short and the rod stubs into the puddle and sticks.

Travel Angle and Work Angle

Hold the electrode at a 10–15 degree drag angle in the direction of travel — tilted slightly back so the arc pushes the puddle forward. The work angle is where the rod sits relative to the joint: 90 degrees to the plate for a butt weld, roughly 45 degrees for a fillet. Get these two angles right and the arc naturally goes where you point it.

Reading the Puddle

Keep the arc at the leading edge of the puddle and let the molten pool trail about one rod width behind it. That’s what gives you consistent fusion and a uniform bead. Watch the puddle widen on thicker sections or colder settings, and speed up if it starts running away from you.

Travel speed is the other dial you control by hand. Move too fast and the puddle starves, leaving a thin, crowned bead with poor fusion at the toes. Move too slow and you pile metal up, overheat the joint, and risk burn-through on thin stock. Aim for a puddle that stays roughly twice as wide as the rod and keeps a consistent leading edge.

Rod Manipulation: Stringers, Weaves, and Whips

• Stringer bead: a straight drag with no side-to-side motion. The foundation of all stick welding; master this first.
• Weave: a controlled side-to-side pattern (like a small Z or crescent) that widens the bead on thicker plate. Keep the weave tight so you don’t lose arc stability or trap slag. Run it too slowly and you can slide past the puddle and cause overlap.
• Whip: a short forward-and-back motion that lets the puddle cool slightly. Useful for thin material and gap control, but easy to abuse — overdoing it leaves a cold, lumpy bead.

Clean Restarts and Stuck Rods

Stopping mid-weld leaves a crater. For a clean restart, chip and brush the crater, then strike the arc slightly ahead of the crater and drag back into it. That ties the two beads together instead of leaving a cold lap. If a rod sticks, twist it sharply side to side to break it free. If it’s welded solid, shut the machine off before prying it loose — yanking a live electrode risks burning the stinger and your hands.

Building the Feel

None of this clicks from reading alone. Burn through rod after rod on scrap, changing one variable at a time, and the angles and sounds start to feel automatic. Our welding practice guide lays out drills that build real muscle memory, from straight stringers to restart practice. Keep a simple log of what you changed and which beads actually worked.

Welding in All Positions: Flat, Horizontal, Vertical, and Overhead

Once you can run a decent bead on a bench, the real test begins: the plate moves, and gravity stops helping. Molten metal always wants to sag, so every position — flat, horizontal, vertical, and overhead — is a negotiation between arc force, surface tension, and heat. Change the joint’s angle and you have to change your settings, rod angle, and motion to match. The American Welding Society classifies these as 1G through 4G for grooves and 1F through 4F for fillets, and each one demands a different touch.

Flat (1G, 1F): Gravity Is on Your Side

Flat is the easiest position because gravity holds the puddle down inside the joint. That lets you run the upper end of your electrode’s amperage range, giving deeper penetration and faster deposition without the metal running off. Hold a work angle near 90 degrees, drag the rod 5 to 15 degrees, and keep a steady travel speed. Because you can push more current here, flat is the fastest-depositing position and the one with the widest usable amperage window. If the puddle wanders or you see undercut at the toes, you are likely too hot or lingering too long.

Horizontal (2G, 2F): Fighting the Droop

Horizontal welds sit on a vertical face, so the puddle wants to droop downward. Step back to mid-range amperage and aim the arc slightly up into the top plate, letting the puddle push into the top toe before it freezes. A small side-to-side motion fills both toes evenly and keeps the bead from sagging. Excess current makes the bead roll over; too little leaves cold lap. This is where edge control matters most, because running too slow at the toe invites an overlap defect you will have to grind out later.

Vertical (3G, 3F): Up for Strength

Vertical-up is the go-to for structural work because it produces deeper penetration and better fusion than vertical-down. Your travel angle shrinks to just 10 to 15 degrees, dragging slightly upward, and a gentle weave — side to side, pausing briefly at each edge — helps control heat and bridge gaps. That pause is what ties the toes in and keeps the puddle from running ahead of the arc. Vertical-down runs faster with less penetration, so reserve it for thin sheet. Either way, drop your amperage below the flat setting so the puddle does not outrun you.

Overhead (4G, 4F): The Demanding One

Overhead is the most physically demanding position, and spatter falls toward you. Surface tension is the only thing holding the molten metal until it freezes, so use a short, tight arc, smaller electrodes, and slightly lower amperage. Keep arc length minimal so heat concentrates in the joint instead of blooming outward. A slight forward-and-back motion keeps the puddle manageable. Suit up with a leather jacket and sleeves, and follow the eye-protection requirements in OSHA 1910.252 before you tip your hood back.

Which Electrodes Fit Which Position

Not every rod runs everywhere. If a rod is not rated for a position, the puddle and slag simply will not behave.

Every position improves with deliberate repetition rather than guesswork. Rotate your practice plate, run each pass at the amperage and angle above, and grade your own beads against a structured welding practice plan before you move on.

Common Mistakes and How to Fix Weld Defects

Every beginner runs into the same frustrating wall: the bead looks wrong and you cannot tell why. Stick welding punishes guesswork, but almost every defect traces back to just a handful of variables — amperage, arc length, travel speed, and rod condition. Learn to read the symptom, and the fix is usually one small adjustment away.

Start With the Two Most Common Problems

A sticking rod usually means your amperage is too low or you hesitated on the lift. Instead of fighting it, raise amps about 10 and lift a touch faster — and if tapping keeps snagging, switch to a scratching motion to strike the arc. The other frequent culprit is arc length. A long arc weakens the shielding gas cloud, letting the atmosphere rush in and create the pinhead holes called porosity. Add oil, grease, paint, or rust on the plate, and you have a recipe for a porous bead. Grind to clean metal and keep a short, tight arc.

Heat, Speed, and Slag Control

Undercut — that gouged groove melting into the edges of your bead — is typically caused by amperage too high or travel speed too fast. Ease off the amps and slow your hand. Burn-through points to excessive amperage on thin material, so dial back the heat, move quicker, and consider a smaller electrode. Slag inclusions come from low amperage, sloppy interpass cleaning, or an arc length that is too short for certain electrodes. Fully chip and brush every pass before you lay the next one. Watch for overlap too, where molten metal rolls over the toe without fusing — a telltale sign of too much heat combined with too slow a travel speed. Excessive spatter often follows high amps or a long arc, so those adjustments usually clear it up.

Why Hydrogen Cracking Is the Sneakiest Defect

Trapped hydrogen from moisture in low-hydrogen electrodes can cause delayed hydrogen-induced (underbead) cracking — a defect that may not show up for hours or even days after you finish welding. That is why electrode storage matters so much. Keep opened E7018 in a heated rod oven, discard rusty or damp rods, and never leave them lying on a cold shop floor overnight. If you are fine-tuning settings after switching rods, check your amperage ranges, such as this guide to 3/16 E7018 amperage, so you are not masking a defect with the wrong heat.

Read the Bead, Then Adjust One Thing

Great welders are not born — they are built by learning to diagnose their own work. Compare your results against clear references like these good and bad weld examples, then change only one variable at a time and watch what happens. A smooth, even ripple and consistent width mean you are on track; ripples that are too tall, too flat, or spaced unevenly point you straight back to the table above.

Safety First: Fumes, Ventilation, Fire, and Eye Protection

Stick welding rewards respect for four hazard families: airborne fume and gas, arc radiation, fire and hot work, and electrical shock. None are hypothetical. Get them wrong and the price ranges from a headache and arc eye to a burn, a house fire, or a fatal shock. The good news is that every one of these dangers is well understood, and the controls are straightforward once you know what the standards actually say. Here’s how to apply them at the bench.

Fume and Gas Exposure

Welding fumes are a complex mixture of metal oxides, and they routinely carry small amounts of manganese. That matters because manganese is a known neurotoxin. NIOSH’s recommended exposure limit for manganese is 1 mg/m³ as a time-weighted average and 3 mg/m³ as a short-term exposure limit, while OSHA’s permissible exposure limit is a 5 mg/m³ ceiling. NIOSH has found that welders exposed to low manganese levels (under 0.2 mg/m³) performed more poorly on tests of brain function and motor skills, showing changes in mood, short-term memory, reaction time, and hand-eye coordination.

Stick electrodes also release carbon monoxide, ozone, and nitrogen oxides, and the flux coating adds to the mix. Because fume is a blend, NIOSH recommends controlling total welding fume to the lowest feasible concentration while still meeting the exposure limit for each individual constituent. In practice, that means you don’t get to pick a single number and call the job safe.

Ventilation: Local Exhaust vs General

OSHA 1910.252 requires mechanical ventilation when you’re welding in a space of less than 10,000 cubic feet per welder, or in a room with a ceiling under 16 feet, at a minimum of 2,000 cubic feet per minute per welder — unless local exhaust or airline respirators are used.

There are two ways to meet that. General ventilation dilutes fume across the whole room, while local exhaust captures it right at the source and is far more effective. ACGIH guidance calls for roughly 100–200 feet per minute of capture velocity at the point where fume is generated, so position a fume extractor or hood with the arc sitting inside that airflow. Keep the hood close, because capture velocity drops off fast with distance. When dilution and exhaust still aren’t enough, a fit-tested respirator rated for welding fume closes the gap.

Arc Radiation and Eye Protection

A stick arc throws intense ultraviolet and infrared radiation. Welders use shade 10–11 auto-darkening helmets to block it, and nearby workers need protective screens so stray arc rays don’t cause “arc eye” or skin burns. Proper protective eyewear for welding is a layer beneath the hood, not a replacement for it. Cover exposed skin, too: the UV that burns your eyes will redden your neck and forearms just as fast.

Fire and Hot Work

OSHA requires that, where practicable, all combustibles be relocated at least 35 feet from the work site, and that a fire watch be provided wherever more than a minor fire might develop. Spatter travels farther than most beginners expect, and slag stays hot long after the glow fades. Keep an extinguisher within reach, sweep the floor of rags and sawdust, and check the area during and after every break.

Electrical Shock

Stick welding runs on open-circuit voltage that can be lethal under the wrong conditions. Keep stinger and work-lead insulation crack-free and dry, never weld in standing water or rain, and don’t swap electrodes with wet gloves. A deliberate shop layout makes all of this easier, which is exactly what good welding facilities planning covers.

If you’re pregnant, arc fume and radiation warrant extra caution. Our guide to welding while pregnant walks through the risks and practical precautions.

Stick vs MIG, TIG, and Flux-Core, Plus a Practice Plan and Final Takeaways

You’ve struck the arc, controlled the puddle, and run beads in more than one position. So which process actually belongs in your shop? Here’s how stick lines up against the other three common arc processes.

Stick welding is the most portable and wind-tolerant of the common arc processes because the flux coating supplies its own shielding gas and slag — no cylinder to haul. That same self-shielding is why it still dominates field work, pipe, and structural repair.

Cost is another factor. A basic stick machine costs less than a comparable MIG or TIG setup, and the process tolerates rust, mill scale, and mild contamination that would ruin a MIG bead. The trade-off is cleanup: every pass leaves slag you must chip and brush before the next one, and you stop to change rods as each burns down.

Gasless MIG welding, or self-shielded flux-cored arc welding, sits in the middle: it lays down metal faster than stick while tolerating outdoor conditions. If you’ve ever wondered whether flux core is the same as MIG, it isn’t — the wire carries its own flux and needs no bottle. And if you already own a wire feeder, our guide on how to use a wire welder is the natural next read.

MIG delivers fast, easy deposition but leans on external shielding gas and wilts in a breeze — a poor fit for outdoor work. TIG produces the cleanest, most controllable beads of the four, yet it’s the slowest, most skill-intensive, and still needs shielding gas; see how polarity is handled in our TIG welding polarity guide.

A Four-Week Practice Progression

Deliberate reps beat random sparks. Log your amperage, rod, and what the bead looked like after every session — the same approach covered in our complete guide to building real welding skills.

• Week 1: 3/32 in. E6013 on 1/8 in. plate. Flat beads only — strike, hold a tight arc, maintain a consistent travel speed. Chase a uniform ripple pattern.
• Week 2: Pad beads and lap joints with E6013. Vary amperage in small steps and note where the puddle turns sluggish or starts undercutting.
• Week 3: Switch to 1/8 in. E7018 once your technique stabilizes. Lower hydrogen, a different arc feel, and far less forgiving of a long arc.
• Week 4: Move off flat. Horizontal stringers, then vertical up, then a simple overhead pass. Add T-joints and butt joints with a root and cap.

Most beginners running E6013 can make acceptable flat beads within a day. All-position work and code-quality welds take weeks to months of honest repetition.

Final Takeaways

• Match the process to the job: stick for portability, dirty metal, and wind; MIG for speed on clean bench work; flux-core for outdoor production; TIG for precision and appearance.
• Settings are a starting point, not a rulebook. Adjust amperage to what the puddle tells you.
• Comfort, a stable stance, and a tight arc fix more defects than any machine setting.
• Practice with a goal every session, and keep a log.

Stick welding rewards patience more than talent. When you’re ready to go further, industry resources such as the American Welding Society offer certifications and structured training. Keep the arc tight, read the puddle, and log each drill — the beads will follow.

Frequently Asked Questions

What is the best stick electrode for a complete beginner?

E6013 in a 3/32 inch diameter is the most forgiving starting rod. It strikes easily, runs on AC or DC, produces a soft arc with easier slag removal, and tolerates imperfect arc length while you build technique. Move to 1/8 inch E7018 once your bead consistency improves.

How many amps should I set for a 1/8 inch stick rod?

A 1/8 inch rod is about 0.125 inch in diameter, so the rule of thumb puts you near 125 amps as a starting point. In practice a 1/8 inch E6013 runs roughly 80-130 amps and a 1/8 inch E7018 runs about 110-165 amps; start mid-range and adjust, dropping 10-15% for vertical and overhead.

Should I use DCEP, DCEN, or AC for stick welding?

It depends on the electrode. DCEP gives deeper penetration and is standard for E6010 and E7018; DCEN gives shallower penetration with higher deposition and suits thin material; AC sits between them and helps with arc blow. Always follow the polarity printed on the electrode package.

Why does my stick electrode keep sticking to the metal?

Sticking almost always means the amperage is too low or you hesitated when lifting the rod to establish the arc. Raise the amps by about 10, use a scratching start instead of a hard tap, and lift the electrode quickly once it touches. If it welds solid, switch the machine off before prying it loose.

Why is there porosity or pinholes in my weld?

Porosity usually comes from moisture or contamination. Clean oil, grease, paint, and rust off the metal, store low-hydrogen rods like E7018 properly, and keep a short arc; a long arc weakens the flux shielding gas and lets air into the weld pool.

Do I need a rod oven for E7018 electrodes?

For quality and code work, yes. E7018 flux absorbs moisture from humid air, and that moisture releases hydrogen that can cause delayed cracking. Per AWS A5.1 guidance, unused rods from an opened can should be moved to a holding oven at 250-300 degrees Fahrenheit; rods from a freshly opened sealed can usually go straight into the oven.

Is stick welding good for outdoor or windy conditions?

Yes. Because the flux coating creates its own shielding gas, stick welding is far more wind-tolerant than MIG, which needs external gas that can be blown away. That self-shielding property makes stick a common choice for farm, pipeline, and field repair work.

How long does it take to learn stick welding?

Many beginners can lay acceptable flat-position beads with E6013 within a day or two of focused practice. Producing consistent all-position welds and code-quality work typically takes weeks to months of deliberate practice, so log your settings and repeat the same drill until it is automatic.

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.ecfr.gov/current/title-29/subtitle-B/chapter-XVII/part-1910/subpart-Q/section-1910.252
• https://www.osha.gov/welding-cutting-brazing/standards
• https://www.cdc.gov/niosh/welding/about/index.html
• https://www.cdc.gov/niosh/npg/npgd0379.html
• https://www.cdc.gov/niosh/topics/manganese/
• https://www.atsdr.cdc.gov/toxguides/toxguide-151.pdf
• https://esab.com/is/eur_en/esab-university/articles/polarity-in-stick-welding-the-basics-for-beginners/
• https://www.aws.org/