Stick Welding Basics PDF: Complete Beginner’s Guide

You dragged a rusted trailer frame into the garage, bought a cheap buzz box, and the first three attempts ended with the rod stuck to the metal, a shower of spatter and a bead that looked like chewed foil. The frustrating part is that stick welding is still the most forgiving, most portable and most useful process a beginner can learn – you just never got the basics in the right order.

Stick Welding Basics: What Every Beginner Should Know First

If you have ever searched for a straight answer about stick welding, you have probably waded through forum arguments, half-remembered advice, and product pages pretending to be tutorials. This section fixes that. In the next few minutes you will learn exactly what stick welding is, what the letters SMAW stand for, why nearly every welding school on earth starts students on this process, and how to use this guide as a printable shop reference.

What Stick Welding Actually Is

Stick welding is officially called Shielded Metal Arc Welding, abbreviated SMAW. You will also see it named manual metal arc welding (MMA or MMAW), and in everyday shop talk simply “stick” or “rod” welding. All of those terms describe the same process, and the aliases matter mainly because different countries and certifications use different names for it.

Here is the mechanism in one sentence: an electric arc is struck between a flux-coated consumable electrode and the metal being welded, melting both into a single fused pool that becomes the joint. The elegant part is that SMAW uses a consumable flux-coated electrode held in an electrode holder, so the filler metal and the atmospheric shielding come from the same stick. There is no separate gas cylinder, no wire spool, no torch hose to drag around. That is exactly what makes the setup so portable, and it is why a stick machine fits in a truck toolbox and still handles structural work.

The process runs on either AC or DC power, which means it works on cheap ancient “buzz box” machines and on modern inverter units alike. It is also the most tolerant process for wind, dirt, rust, and out-of-position welding. Field crews, farm shops, pipe welders, and maintenance teams still rely on it for that reason, and a look at the advantages of stick welding shows why SMAW keeps winning in hard environments even as fancier processes spread.

Why Beginners Start Here

Welding schools and apprenticeship programs almost universally begin with SMAW, and not out of habit. Stick welding teaches the fundamentals that transfer to every other process: arc length, travel speed, work and travel angles, puddle control, and heat management. On a MIG machine you can hide sloppy technique behind a fast wire feed. On a stick welder you cannot. The arc tells you honestly and immediately what you are doing wrong, which is uncomfortable for about a week and then becomes the most valuable teacher you have ever had.

Stick is also forgiving in ways beginners rarely expect. It does not care much about mill scale or light rust, it does not mind a draft, and it requires no gas cylinder rental or flow of consumable contact tips. For a hobbyist fixing a trailer, a farmer repairing an implement in the yard, a student building job skills, or a career switcher testing whether welding suits them, the barrier to entry is refreshingly low.

Who This Guide Is For

This guide is written for people who are holding a stinger for the first time, or who have tried it a few times and gotten bad results:

• Hobbyists and DIYers who bought a cheap welder and need fundamentals, not theory.
• Farm and shop repairers who need a process that works on rusty, dirty, thick steel outdoors.
• Welding students preparing for lab work or a performance qualification test.
• Career switchers evaluating welding before committing money and time to a program.

You do not need a metallurgy degree to follow along. Every concept is explained in plain language, with concrete numbers you can dial into your machine today.

What the Guide Covers

The full article walks through the entire beginner skill set in a deliberate order:

1. How SMAW works — the arc, the flux coating, shielding gas, and slag.
2. Electrode codes — decoding E6010, E6011, E6013, and E7018 markings.
3. Machine setup and amp settings — polarity, ground clamping, and a rod-and-thickness settings table.
4. Core technique — striking the arc, rod angles, travel speed, and plate positions. Our all-position welding rod guide pairs well with this section.
5. Troubleshooting — a cause-and-fix table for sticking, porosity, undercut, spatter, and burn-through.
6. Safety — PPE, ventilation, fume exposure, and hot-work rules.
7. A 30-day practice plan with real beginner projects you can actually build.

About This Page as a Printable PDF Reference

You searched for stick welding basics PDF, so let us address that directly. This page is deliberately structured as a complete, saveable beginner reference: defined terms, numbered settings, tables, and checklists that stay useful long after you close the tab. Most browsers let you save any page as a PDF with Ctrl+P (or Cmd+P on Mac) and choose “Save as PDF” as the destination. Print the settings table and the troubleshooting table, tape them inside your welder cabinet, and you have a shop manual that cost nothing.

The final section also lists authoritative free PDF sources, including OSHA welding safety publications such as the fact sheet Controlling Hazardous Fume and Gases during Welding (Publication 3647, 2013), the NIOSH Pocket Guide to Chemical Hazards, and free AWS welding resources. Those are the sources worth trusting.

One last thing before we get technical: OSHA organizes its welding safety guidance under the same Welding, Cutting, and Brazing topic page we will cite again in the safety section. Bookmark it. Nothing in this guide is worth learning the hard way.

Now that you know what SMAW is and why it comes first, the natural next question is what is actually happening inside that blinding little arc — and the answer changes how you read a puddle forever.

How Stick Welding Actually Works: Arc, Flux and Slag

Before you can fix a bad bead, you need to know what happens under the flux. Stick welding looks violent from the outside, but the mechanism is simple: a controlled electric circuit melts metal, and a burning coating shields that molten metal from the air until it freezes. Learn the three moves — arc, flux, slag — and your helmet becomes a window instead of a shield.

The Circuit: Completing the Loop

Every stick welder is half of an electrical circuit the workpiece must finish. Power leaves through the electrode holder (your stinger), jumps the air gap between rod tip and steel, and returns through the ground clamp and its cable. Clamp it as close to the joint as you can. Attach it to a table leg or rusty fender instead and current takes a crooked path, which you feel as a wandering, unstable arc.

That air gap is the arc. Its resistance converts electrical energy into intense heat, which does two jobs at once: it melts a crater into the base metal and the tip of the electrode; both become one shared puddle. As it solidifies behind your travel, filler from the rod and parent steel fuse into a single piece of metal rather than sitting on top of it.

What the Flux Coating Actually Does

The stick is steel wire wrapped in a chemical coating called flux, and that coating does most of the heavy lifting. Under arc heat it breaks down in three ways:

• It makes shielding gas. The burning coating releases a gas blanket over the puddle that keeps oxygen and nitrogen out. Air is the enemy of a weld pool — molten steel soaks up gases it later rejects as cooling pockets, which show up as porosity.
• It makes liquid slag. A lighter liquid forms on top of the pool, physically blocking the metal from the atmosphere.
• It adds chemistry. Flux carries deoxidizers and alloying elements into the puddle, cleaning oxides and helping control the composition of the finished bead.

Because the flux makes its own shield, there is no gas bottle to drag to the job site — a real reason stick wins outdoors and in the field, as covered in Advantages of Stick Welding: Why SMAW Still Wins. Gas-shielded processes solve the same problem differently, feeding protection from a cylinder through a nozzle instead, as contrasted in Aluminum MIG Welding: The Complete Practical Guide.

Constant-Current Machines and the Consumable Electrode

Stick power sources are constant-current (CC) machines: they hold amperage steady no matter how much the arc gap wobbles, while arc voltage follows your hand. Each rod is designed for a specific current, so your job is to keep arc length steady and voltage consistent. Stretch the arc and heat spreads wider and softer; jam the rod in close and the arc turns forceful and narrow.

The core wire is the filler metal, so a fresh 14-inch, 1/8-inch rod disappears into a surprisingly short bead before you are back in the box for the next one. That is what consumable electrode means — unlike TIG, where a non-consumable tungsten only shapes the arc, the stick electrode gives up its body to the weld. The numbers stamped on those rods (E6013, E7018, and friends) come from AWS A5.1, the specification for carbon steel SMAW electrodes, and we will decode them fully in the next section.

Slag Is Not Waste

After the pass, that crust of slag looks like junk. It is not. The slag blanket slows the cooling rate of the bead, and slower, more even cooling gives the weld a healthier grain structure while letting gases escape before they trap. Slag also captures impurities that would otherwise stay in the metal.

The catch: it must come off completely. Chips of hardened slag left in a groove or between layers become slag inclusions — weak spots that fail inspection and can fail in service. Chip it with a peening hammer, wire-brush the surface, and look at shiny metal before starting the next pass.

How to Read Stick Electrode Numbers: E6010, E6011, E6013 and E7018

Every stick rod carries a five-digit code stamped into the flux, and that code answers nearly every question you will have at the welding table. Beginners buy E6013 because a clerk called it the easy rod, then wonder why it refuses to dig through rust on a trailer frame. Ten minutes with the numbering system prevents that.

The codes come from the American Welding Society, written into the AWS A5.1 specification for carbon steel electrodes. Once you can read the number, you can pick a rod without guessing.

Decoding the Classification, Digit by Digit

Take E7018 apart and it stops looking like alphabet soup:

• E — the electrode is consumed during welding.
• 70 — minimum tensile strength of the deposited weld metal: 70,000 psi.
• 1 — the position rating: usable in all positions.
• 8 — the flux coating type and the current the rod is designed for.

Digit	What It Tells You	Examples
E	Consumable electrode for shielded metal arc welding	E6013, E7018
First two numbers	Minimum tensile strength in thousands of psi	60 = 60,000 psi; 70 = 70,000 psi
Third digit	Rated welding positions	1 = flat, horizontal, vertical and overhead; 2 = flat and horizontal only
Fourth digit	Coating type and compatible current	0 = high cellulose, DC only; 1 = high cellulose, AC or DC; 3 = rutile; 8 = low-hydrogen iron powder

The third digit trips up beginners most often. A “1” means the rod is all-position rated, so a single E7018 runs flat, horizontal, vertical-up and overhead. A “2” (as on E7024) restricts the rod to flat and horizontal bench work: excellent for production fillets, useless on a wall. Suffixes carry meaning too. E7018-H8 is a low-hydrogen rod held to a stricter hydrogen limit, and an “R” suffix marks an iron powder coating.

The Four Rods Every Beginner Actually Uses

E6010 is the deep-diver. Its cellulose coating burns hot and forceful, driving a narrow arc that cuts through mill scale, rust, paint and oil better than anything else in the box. Welders prize it for root passes and open-root joints where you need full penetration. It runs on DC electrode positive only, so a cheap AC-only machine will not light it.

E6011 is E6010’s cousin, reformulated to run on AC as well as DC. That makes it the savior of budget 120-volt buzz boxes with no DC setting, and it keeps the same penetrating, self-cleaning character. It is the rod behind most farm and roadside repairs, and one reason stick still wins outdoors against every other process.

E6013 is the opposite personality: a soft, quiet, shallow arc with smooth ripples, easy restarts and very little spatter. It runs on AC or DC and tolerates a slightly longer arc, which is why it is nearly always the first rod handed to students. It shines on thin sheet and light-gauge repair, where a 6010 would simply blow holes. Its weakness is dirty metal, because shallow penetration cannot burn contaminants out of a joint.

E7018 is the structural standard. The “8” coating is a low-hydrogen, iron-powder flux that lays down a dense, clean weld with 70,000 psi strength. It is the rod used for structural steel and the classic choice for vertical-up fillets on plate. It is designed for DC electrode positive, though AC variants are made, and it demands steadier arc-length discipline than a 6013: wander too far off the work and the shielding breaks down into porosity.

What “Low Hydrogen” Actually Means

Hydrogen is the quiet enemy of a sound steel weld. Moisture in the flux dissociates in the arc, hydrogen dissolves into the molten puddle, and as the bead cools that trapped gas can crack the metal hours after you finished welding. This delayed failure is called hydrogen-induced cracking. Low-hydrogen rods are manufactured and tested so the deposit carries very little diffusible hydrogen; under the AWS classification system, an E7018-H8 deposits no more than 8 milliliters of hydrogen per 100 grams of weld metal.

That protection has a cost: the flux drinks moisture from the air. A 7018 left open in a humid shop slowly loses its low-hydrogen advantage, so the storage rules are strict:

• Keep rods sealed in the original container until you are ready to weld them.
• Once opened, store them in a heated rod oven or a portable rod heater bag.
• Re-bake moisture-exposed rods using the manufacturer’s time and temperature chart.
• Never run a 7018 from a damp-looking package on anything structural.

How to Choose Your First Rod

• AC-only machine, general repair: E6011
• Thin sheet or light tubing: E6013
• Rusty, painted or galvanized steel: E6011
• Root passes and open roots: E6010 on DC electrode positive
• Structural plate, strong fillets, vertical-up: E7018
• Anything out of position: any rod whose third digit is 1

If you buy only two boxes to begin, make it a 3/32 or 1/8 inch E6013 for practice and a small bundle of E6011 for dirty field repairs. Master those two first, and E7018 will come quickly, because both teach the tight arc-length control that the low-hydrogen rod requires.

Machine Setup and Amp Settings: Dialing In Your First Bead

Half of every bad weld a beginner runs has nothing to do with hand skill. It is a setup problem: a ground clamp biting into paint, a machine on the wrong polarity, amps guessed by turning the dial to a number that “seems right.” Ten minutes of deliberate setup fixes more beads than ten hours of practice on a bad setup. Run this checklist in order.

Choosing the Machine: 120V, 230V, AC or DC

For a first machine, three specs matter more than brand names:

• Amperage range. Look for roughly 40–140 amps on 120V and 40–200+ amps on 230V. Anything that maxes out near 100 amps struggles with 1/8-inch rods on quarter-inch steel.
• Current type. A DC machine runs almost every common rod and gives a smoother arc. Many cheap “buzz boxes” are AC-only, which works and stays popular for simplicity and low cost, but your rod choice narrows (more below).
• Duty cycle. The percentage of a 10-minute period the machine can weld at rated amps without overheating.

One reason stick remains such a practical starting process is raw portability: one machine, one stinger, a ground clamp, and a handful of rods fit in a truck bed and run off a generator. That argument is explored further in Advantages of Stick Welding: Why SMAW Still Wins.

Ground Clamp, Joint Prep and Polarity

Clamp the ground directly to clean, bare metal on the workpiece itself, as close to the joint as possible. Clamping to a vise leg, a table, or painted tubing is a classic cause of a weak, wandering arc that drops out randomly. If paint or mill scale near the joint is heavy, grind or wire-wheel it until you see shiny steel an inch or two either side of where you will weld. Dirty metal shows up as porosity and lack of fusion later, and no technique recovers it.

Then set polarity. The rod box tells you what the electrode needs: E6011 and E6013 run happily on AC, E6010 wants DCEP (electrode positive), and E7018 runs DCEP or AC depending on the rod. Reversing polarity on a 7018 or 6010 is a common beginner mistake that produces weak penetration and an erratic arc. If you are buying a first all-purpose rod, an all-position welding rod guide is worth a read before you settle on a single box.

Setting Amperage: The Rule of Thumb

The starting rule is simple: use about 1 amp per 0.010 inch of electrode diameter. Since 1/32 inch equals 0.031 inch, a 1/8-inch rod (0.125 in) starts near 110–125 amps. Set there, run a bead, then adjust by what the arc tells you.

Rod Diameter	Typical Amp Range	Comfortable Steel Thickness
3/32 in	65–90 A	16 ga to 1/8 in
1/8 in	90–130 A	1/8 to 1/4 in
5/32 in	130–170 A	1/4 to 1/2 in

These ranges are typical, not gospel. Always confirm against the settings printed on your rod box, because coatings and manufacturers vary. The principle holds: thin sheet gets lower amps and a smaller rod, thick plate gets more.

Arc Length and Travel Speed

Keep your arc length about equal to the core wire diameter — roughly 1/8 inch for a 1/8-inch rod. A long arc does three bad things at once: more spatter, weaker shielding, and undercut at the toes. If you hear a harsh crackle and see spatter flying, shorten the arc before touching anything else.

Travel speed follows the puddle, not the clock. Move fast enough that the puddle stays narrow and controlled; linger too long and the puddle balloons, gets flat and wide, and may burn through on thin steel. Move too fast and the bead turns narrow, tall and poorly tied in.

Fine-Tuning by Reading the Bead

Your first bead is a readout. Adjust one variable at a time, in this order:

1. Amps — too cold (narrow, ropey, poor tie-in) means turn up; too hot (flat, wide, saggy) means turn down.
2. Arc length — spatter and porosity mean get closer.
3. Travel speed — inconsistent width means slow down or speed up to match the puddle.
4. Rod angle — most flat and horizontal work wants a slight drag angle, roughly 10–20 degrees back from perpendicular.
5. Cleanup — chip slag and wire-brush between passes so the next bead fuses into metal, not into a crust.

Set the machine once, keep the ground honest, hold a tight arc, and let the puddle set your pace. Do those four things and your beads start looking like welds instead of chewed foil.

Core Stick Welding Technique: Starting the Arc, Angles and Positions

Stick welding technique is really four skills stacked in order: strike the arc, hold the rod at the right angle, move at the speed the puddle wants, and repeat it in a position that may be fighting gravity. Learn them in that order and each one gets easier.

Striking the Arc: Scratch Start and Tap Start

There are two common ways to get an arc going, and every beginner should try both:

• Scratch start. Drag the electrode tip across the plate the way you would strike a match, at a shallow angle. The moment it ignites, lift slightly and settle into a short arc roughly the diameter of the rod. This is the easiest method and the one to master first.
• Tap start. Touch the rod to the plate and lift straight off. It is neater and puts less spatter down, but it takes a feel for exactly how far to lift.

The classic beginner failure is the rod freezing to the plate. When it sticks, break it free with a short twist rather than hauling on the holder, or you will bend the rod and strain the cable. Sticking usually means your amps are too low, your lift-off was too slow, or the steel at the strike point was dirty.

Work Angle, Travel Angle and Where the Rod Points

Two angles control the bead, and beginners confuse them constantly. The travel angle is the rod’s tilt relative to the direction you are moving. For most stick welding that means a trailing or drag angle of about 10 to 15 degrees: the holder is tilted back, pulling the puddle behind it. Pushing the rod forward drives the arc ahead of the puddle and tends to cause porosity and poor fusion.

The work angle is how the rod points into the joint itself. On a flat butt joint it sits close to vertical. On a flat fillet, such as a T-joint, the electrode sits about 45 degrees into the joint corner while you keep that same drag angle behind it. Getting both right at once is the trick, so practice them separately on scrap before combining them.

Travel Speed, the Puddle and Stringer Beads

Your travel speed is not set by a clock; it is set by the puddle. Watch the leading edge of molten metal, keep the tip of the rod buried in that leading edge, and move only as fast as the puddle stays the width you want. Move too fast and the bead goes narrow, crowned and poorly tied in. Move too slow and you drown the arc, pile up a fat bead, and risk burn-through.

Run stringer beads (straight passes with no side-to-side motion) until they are consistent before attempting weaves. Weaving hides sloppy control behind a wider appearance, and on thin material it adds more heat than the joint can take. Our advantages of stick welding guide covers where SMAW technique carries over between joint types and where it does not.

The Four Positions: Flat to Overhead

Positions are written two ways: F for fillet (T and lap joints) and G for groove (butt joints).

Position	Name	What it feels like
1F / 1G	Flat	Workpiece on the floor or table; easiest, gravity helps
2F / 2G	Horizontal	Welding on a vertical face, puddle wants to sag
3F / 3G	Vertical	Welding up or down a vertical seam
4F / 4G	Overhead	Hardest; gravity pulls the puddle toward your helmet

Overhead earns its reputation because gravity works against the puddle the entire time. That is why electrode choice matters as much as hand control: fast-freeze rods such as 6010 and 6013 solidify quickly and tolerate overhead, while fill-freeze low-hydrogen 7018 gives a smoother, stronger weld but demands tighter arc length. Our all position welding rod guide breaks down which rod fits which position.

On vertical joints you have a real choice:

• Vertical-up is slower but gives deeper penetration and fusion. It is the default for root passes and thick structural fillets, and what most qualification tests demand.
• Vertical-down is faster and puts less heat into the plate, so it suits thin material welded with fast-freeze rods like 6010. On thick steel it sacrifices fusion.

The AWS D1.1 structural code formally defines these plate and fillet positions for welder qualification, so get used to the numbering early (AWS standards). Also know the joint types: a butt joint joins two flat edges edge-to-edge, while a fillet joint joins two surfaces at an angle, as in a T or lap. The angles you hold change with the joint, not just the position.

Practice Drills That Actually Build Skill

Do not start by trying to build something. Run drills:

1. Bead-on-plate. Lay stringers on flat plate at a fixed amp setting. Aim for 6-inch beads you would not be embarrassed to show.
2. T-joints (fillets). Add the 45-degree work angle and weld both sides of the same joint.
3. Lap joints. Practice tying into the top edge without undercutting it.
4. Position coupons. Move to horizontal, then vertical-up, then overhead, one at a time.

Judge every bead on four things: uniform width, consistent ripple spacing, a smooth tie-in at both toes, and no porosity or undercut. Grind the plate flat between attempts and weld again. Consistency comes from repetition with a fixed setting, not from constantly chasing the amp dial.

Common Stick Welding Problems and How to Fix Them

Even experienced welders hit rough patches with SMAW. The arc misbehaves, the metal won’t fuse, or the finished bead looks like something you scraped off the shop floor. The good news: problems with stick welding (SMAW) follow predictable patterns. Read your bead, make one small adjustment, and you’re usually back on track without guessing.

Reading Your Bead as a Diagnostic Tool

Before you touch a dial, watch the puddle. The bead tells you whether you’re hot, cold, or right on target.

• Too hot: wide, flat bead with deep penetration that may gouge the base metal, heavy spatter, a loud crackly arc, and burn-through on thin sections.
• Too cold: tall, narrow bead with shallow penetration, edges that don’t tie in, and an arc that pops or struggles to stay lit.
• Undercut: a sharp groove melted beside the weld — usually too many amps, travel too fast, or the wrong drag angle.
• Rod sticking or arc going out: typically running cold or holding too short an arc.

With practice your ears and eyes become your best meters, and that instinct is what carries you past stick welding basics into consistent technique.

What to Change First

Don’t twist every dial at once. Change one variable at a time, in this order:

1. Amperage. The biggest lever. Cold bead and sticking rod? Bump amps. Hot and spattering? Drop them.
2. Arc length. Keep it roughly the diameter of the electrode for most rods. Too long invites spatter and porosity.
3. Travel speed. Controls heat input. Too fast causes undercut and lack of fusion; too slow causes overlap and burn-through.
4. Rod angle. Your drag angle shapes penetration and bead profile.
5. Prep. Rust, paint, oil, or moisture will ruin a weld even with perfect settings.

Troubleshooting Table: Causes and Fixes

Problem	Common Causes	How to Fix It
Rod sticking	Amps too low, arc too short, damp or wrong electrode for the machine	Increase amps slightly and hold arc ~rod diameter. If stuck, snap the rod sideways (don’t yank). Match rod to AC/DC.
Porosity	Moisture (damp rods), oil/paint/rust, long arc, wind disrupting shielding	Use dry rods (store low-hydrogen rods in an oven), clean base metal, shorten the arc, block wind.
Undercut	Amps too high, travel too fast, wrong work angle, excessive weave	Reduce amps, slow travel slightly, hold the correct drag angle, keep bead width reasonable.
Slag inclusion	Not cleaning between passes, occasional too-slow travel, poor bead placement	Chip and wire brush thoroughly between passes. Never run over uncleaned slag; weave where needed.
Lack of fusion/overlap	Cold amps, too-fast travel, arc too long, poor joint access or angle	Increase amps, slow travel, keep a short arc, and aim the arc into the root and faying surfaces.
Excessive spatter	Arc too long, wrong polarity for the rod, amps too high, unstable technique	Shorten arc to ~rod diameter, verify DC+/DC- matches the electrode, reduce amps if the bead runs hot.
Arc blow	Magnetic fields from nearby current paths, welding near large steel masses	Move the ground clamp, switch to AC if supported, or adjust electrode angle and travel direction.
Narrow/high or flat/wide bead	Travel speed, amps, arc length, or angle off	Narrow/high means cold and fast; flat/wide means hot and slow. Tune amps and speed, hold a consistent angle.
Burn-through (thin steel)	Amps too high, slow travel, gap too wide, thin material	Lower amps, travel faster, reduce root gap, use a smaller rod, or back up thin sections.
Cold lap	Inadequate fusion at the toe, cold weld pool, poor tie-in	Increase heat slightly, aim the arc at the toe, slow travel so the puddle wets the edge, clean the joint.

Clean Between Passes (and Why It Matters)

On multi-pass welds, cleaning is not optional. After each pass, use a chipping hammer to knock off the slag, then a wire brush down to clean metal. Leave slag behind and it gets trapped in the next pass, creating slag inclusions that weaken the weld. That matters most on structural work.

Thirty seconds of cleaning beats grinding out and redoing a pass later. The same rule applies before you strike an arc: strip paint, rust, and oil so the weld starts on clean steel.

Resources like OSHA’s welding safety guidance and NIOSH’s welding health topics reinforce that solid technique and preparation reduce hazards. Later you might branch into aluminum MIG welding or alloy wheel repair, but mastering SMAW troubleshooting builds the foundation for all of it.

Stick Welding Safety: PPE, Ventilation and Fume Control

Stick welding is forgiving about technique and brutal about habits. It produces more fume than MIG because the flux coating burns off the rod on every pass, and beginners tend to hold their face right over the puddle while they work out arc length. Fifteen minutes of proper setup protects decades of eyesight, lungs and skin, so treat this section as non-negotiable rather than optional reading.

Personal Protective Equipment for SMAW

The minimum kit for arc welding looks like this:

• Helmet: an auto-darkening hood with a variable shade range (roughly 9 to 13) or a fixed-shade lens, typically shade 10 to 12 for common rod work. Most stick runs sit around shade 11, so check the shade number printed on your electrode box and stay in that window.
• Safety glasses: clear, side-shield glasses worn under the helmet. Rods chip, slag pops, and grinding dust gets everywhere the moment you lift your hood.
• Flame-resistant leathers: a welding jacket or leathers plus cuffs that close at the wrist, so sparks sliding down your sleeve do not land on cotton.
• Gauntlets: heavy, unlined welding gloves. Thin gloves burn through in one pass, and stick rods run hotter than MIG wire.
• Foot and hearing protection: safety-toe boots with no ventilation holes, and ear plugs if you are chipping slag or grinding in an enclosed shop.

Arc radiation is a real injury, not a rumor. Ultraviolet from an open arc can burn the surface of your eye within seconds, producing photokeratitis, commonly called welder’s flash or arc eye. Screens should be set up so passersby are never exposed to an uncovered arc, and anyone looking at the arc without a proper lens risks the same burn. OSHA’s welding, cutting and brazing guidance lays out these shielding requirements.

Electrical, Hot Metal and Fire Hazards

A stick machine is a power source with open-circuit voltage waiting for a path to ground. Keep one hand off the metal while loading a rod, clamp the ground directly to the workpiece rather than a vise or table leg, and never weld in damp conditions on frayed leads. Burns are the most common shop injury: hot slag sticks to skin and keeps burning under leather, so no bare ankles, no synthetic fabrics, and never lay a hot stinger on a fuel line.

Fire is where beginners cause real damage. Move combustibles away or cover them, keep a fire watch while you weld and for a period after you stop, and never start hot work where flammable vapors may be present. OSHA’s regulation on fire prevention during welding is spelled out in 29 CFR 1910.252. If you own or hire out cutting work, the safety basics for hot processes are covered in Air Acetylene Welding: Torch Basics, Brazing & Safety.

Welding Fume and Manganese: Know Your Limits

Welding fume is a mix of metal oxides, and NIOSH identifies welding fumes as composed of metals, most containing some manganese. Manganese is the exposure worth memorizing because it is present in nearly every stick coating and is a documented neurological concern:

Source	Limit
NIOSH recommended exposure	1 mg/m³ TWA; 3 mg/m³ short-term
OSHA permissible exposure limit	5 mg/m³ ceiling
ACGIH threshold limit value	0.02 mg/m³ respirable TWA; 0.1 mg/m³ inhalable TWA

The gap between those numbers tells you the regulatory floor is not a health target. Practical controls matter more than paperwork:

• Weld upwind or position your head above and outside the plume, never directly in it.
• Use local exhaust ventilation or a fume extractor arm with the hood close to the arc.
• Increase general airflow rather than welding in a still, enclosed shop.
• Wear respiratory protection with a P100 particulate filter when ventilation cannot keep smoke out of your breathing zone, and consult the NIOSH Pocket Guide to Chemical Hazards for exposure data.

Confined Spaces: The Hazard That Kills

Never weld in an unventilated confined space. Tanks, vessel interiors and pits trap fume, deplete oxygen and concentrate every hazard you just read about. OSHA’s publications library includes the Fatal Facts case study “Confined Space Fire” (Publication 4278, 2023) alongside its earlier fume control fact sheet (Publication 3647, 2013), and NIOSH notes that confined space welding can significantly increase exposure. This is permit-required work with testing, ventilation, an attendant and a rescue plan. If you are considering welding as a career, formal training covers these procedures in depth, as outlined in our Aluminium Welding Course guide.

Master arc length, amps and rod choice, practice deliberately, and treat ventilation as part of the setup rather than an afterthought.

Stick vs MIG vs TIG: Which Process Should a Beginner Learn First?

Most beginners do not fail at welding because they lack talent. They fail because they bought the wrong machine, then met their first job: a rusty trailer hitch on a windy afternoon. Three processes win in three different arenas.

All three melt filler metal into a joint with an electric arc. The differences are in shielding, filler delivery and operator control.

The Honest Comparison

Factor	Stick (SMAW)	MIG (GMAW)	TIG (GTAW)
Learning curve	Moderate. Arc starts and rod changes take practice	Easiest arc to start, hardest to master overall	Hardest. Pedal, torch and filler hands must coordinate
Entry cost	Lowest. No gas cylinder, rods are cheap	Moderate. Machine, gas, regulator and gun consumables	Highest. Precise power supply, argon, tungsten, torch parts
Portability	Excellent. A small inverter and rods go anywhere	Fair. Cylinder transport limits field work	Fair to poor. Same cylinder issue, more setup
Wind and outdoors	Best in class. Flux makes its own shield	Poor. Gas blows away, porosity follows	Poor. Argon disperses in any real draft
Materials	Steel and stainless; thick plate best, thin sheet tricky	Steel, stainless, and aluminum with the right setup	Steel, stainless, aluminum, copper, thin work
Joint prep	Forgiving. Handles mill scale, light rust, poor fit-up	Needs clean, dry metal with decent fit-up	Demands thorough cleaning and tight fit-up
Appearance and cleanup	Slag chipped and brushed; functional, not pretty	Neat, fast, minimal cleanup	Cleanest and most controllable
Typical jobs	Field repair, pipe, structural, farm	Indoor fabrication, sheet, production, autobody	Thin wall, precision, decorative, food-grade

When Stick Is the Clear Winner

Step outside with MIG and the shielding gas leaves with the breeze, which is why advantages of stick welding still matter decades after newer processes arrived. The flux coating generates its own shield at the arc, so rain, gusts and awkward positions barely slow it down. That is why SMAW dominates pipeline, structural field work, shipyards and repair where the joint is not on a clean bench.

Cost reinforces the choice: a basic stick setup is the cheapest way into arc welding, since consumables are just rods, and a rod box outlives a wire spool in a humid shop. It also handles dirty, rusty, thick steel with minimal drama, and one machine runs in a pasture off an extension cord and a ground clamp. For farm repairs, trailer work and heavy brackets, it is the practical answer.

When MIG or TIG Is the Smarter Buy

MIG shines indoors on clean metal. The continuous wire feed means no stopping to change rods, so long fabrication runs move faster, and the technique is forgiving enough that a beginner lays a usable bead in an afternoon. If your projects are a welding table, shop brackets, tubing or sheet, MIG beats stick, provided the work stays clean, dry and out of the wind.

TIG is the precision tool. It gives the cleanest, most controllable weld, dials heat input with a foot pedal, and joins thin material that would burn through under any other process. The trade-off is real: TIG is slower, costlier to set up and harder to learn, because you manage the arc, the pedal and the filler rod at once.

The Aluminum Question

Aluminum is where the comparison gets decisive. Stick is rarely used on it; an alternating-current aluminum stick process exists, but it is uncommon, finicky and far more difficult than gas-shielded wire or TIG. If aluminum is on your list, the sensible routes are covered in aluminum MIG welding and alloy wheel welding, both assuming proper cleaning first, as described in aluminum cleaner for welding. Flux alternatives exist without shielding gas, but they trade away crack control and finish quality.

Stick also produces noticeably more fume and smoke than MIG, so process choice affects your ventilation planning as much as your beads, as OSHA’s welding, cutting and brazing guidance makes clear.

Our Recommendation for Most Beginners

Start with stick if your projects are repairs, outdoor work, thick steel or anything that lives on a farm or trailer. It teaches arc length, amps and puddle reading faster than any other process, and those skills transfer directly to MIG and TIG later. Move to MIG for repetitive indoor fabrication and speed. Learn TIG when appearance, thin material or aluminum becomes the point.

The order matters less than the fundamentals: control arc length, dial amperage to the rod, tie travel speed to puddle size, and practice on coupons before touching anything structural. Master those and the process becomes almost secondary.

A 30-Day Stick Welding Practice Plan and Beginner Projects

Knowing the settings is not the same as having the hands. Arc length, rod angle and travel speed only become skills through deliberate reps, so the plan below turns everything from the earlier sections into four weeks of structured practice. Work through it in order, log the amps and rod choice for every coupon, and resist jumping ahead: each week assumes the one before it is finished.

Week by Week: The Four-Week Drill Ladder

Week	Focus	Drill	Move on when
1	Arc control	Beads on plate, 1/8 in E6013 at one fixed amp setting	Ten straight beads of even width
2	Torch position	Lap joints, then T-joints on 1/4 in plate	Solid tie-in at both toes, no overlap
3	Multi-pass work	Butt joints with a root pass plus a cap pass, cleanup between passes	Clean root, flush cap, no slag inclusions
4	Out-of-position	Vertical-up and overhead coupons on plate	Controlled puddle overhead without dripping

Week 1 is deliberately boring. One rod, one thickness, one machine setting, bead after bead without touching the dial. Changing amps every five minutes teaches you nothing about what your hands are doing. When a rod sticks, write down what you were doing: slow strike, long arc or a drifting hand. By day seven you should be striking cleanly on the first attempt most times.

Week 2 adds angles. Run lap joints first because they are forgiving, then T-joints, where the fillet has to tie into two plates at once. Week 3 puts a root pass and a cap pass on a butt joint. Between passes, chip the slag and wire-brush; if the cap sits too high, knock it back with a grinder. Where a bad root has to come out entirely, air arc welding and carbon arc gouging is the trade technique for cutting out a flawed pass before rewelding. Week 4 moves the puddle out of position: vertical-up builds a stacked, controlled bead, and overhead demands the shortest arc you can hold. The all position welding rod guide helps you pick a rod rated for that work.

How to Judge Your Own Welds

Nobody is standing over your shoulder, so the bead itself is the instructor. Score every coupon against the same checklist:

• Uniform width from start to stop, with no tapering at the crater.
• Evenly spaced ripples, which signal steady travel speed.
• Good tie-in at the toes, with no visible step where the bead meets the plate.
• No porosity, no undercut and no trapped slag along the edges.
• A consistent freeze line on the back side, showing real root penetration.

For a harder check, cut a coupon across the weld, file and polish the cut face, and read the cross-section instead of guessing at penetration depth. Tall and narrow means too cold or too slow; flat and wide means too hot or too long an arc.

From Garage Coupons to Formal Qualification

Once your beads look consistent, the next step is a real test. Welder performance qualification coupons are scoped to a specific process, position and joint type, so passing a flat 3G test does not qualify you for overhead work. Structural tests in the United States are commonly written against AWS D1.1/D1.1M:2025-AMD1 Structural Welding Code – Steel, the reference standard for many structural qualification procedures.

Industry credentials build from there. AWS runs a Certified Welder Program alongside the Certified Welding Inspector (CWI) credential, which is a common career milestone after solid field experience rather than a starting point. Before betting money on a career change, check the U.S. Bureau of Labor Statistics Occupational Outlook Handbook page for welders, cutters, solderers and brazers for current pay and demand data. If you learn better in a structured setting, an aluminium welding course outline shows what formal training usually covers. And for an honest benchmark, SkillsUSA and WorldSkills welding competitions are sanctioned through AWS, so watching a heat tells you exactly how far a beginner still has to travel.

Beginner Projects Worth Building

Finish each week with something useful. Week one: simple brackets from angle iron. Week two: a small shelf or stand. Week three: a welding table from square tube and plate, which will outlast you. Week four and beyond: a driveway gate, then a trailer frame repair, where rust and out-of-position work combine everything the plan taught. Projects matter because they force real decisions about fit-up, distortion and weld sequence that coupons never do.

Run the plan honestly for thirty days and you will not just have read about stick welding. You will have a stack of coupons, a notebook of settings and the muscle memory to lay a bead anywhere a buzz box can reach.

Getting the Stick Welding Basics PDF: Free, Printable and Authoritative Resources

Having a reliable reference on hand can save you time, materials, and prevent unnecessary mistakes in the shop. This section covers how to save this guide as a printable resource, what to look for in one, and where to find up-to-date, authoritative information to keep nearby.

Save This Guide as a PDF for Shop Use

The quickest way to create a stick welding basics PDF is through your browser’s “Print to PDF” feature. On Windows or Linux, press Ctrl+P, and on macOS, press ⌘+P. Set the destination to Save as PDF, choose portrait for most devices, and disable unnecessary headers or footers. If available, enable background graphics to keep tables and callouts visible. This will preserve the structure, internal anchors, and all links for offline use on a tablet or phone in the shop.

What a Useful Beginner Stick Welding PDF Should Contain

A good shop reference should answer questions at a glance. Make sure yours includes the following:

• Electrode chart: AWS numbers, current type (AC/DC), positions, typical applications, and low-hydrogen storage requirements for rods like 7018.
• Amperage table: Suggested amp ranges by rod diameter (3/32″, 1/8″, 5/32″) and material thickness, with a reminder to fine-tune based off of puddle behavior.
• Technique quick guide: Arc length (roughly the rod diameter), work and travel angles, strike methods (scratch or tap), and travel speed cues.
• Troubleshooting table: Common issues such as rod sticking, porosity, undercut, slag inclusion, lack of fusion, spatter, or arc blow with their causes and fixes.
• Safety checklist: Required PPE, helmet shade guidance, ventilation, fire prevention, electrical safety, fume control, and confined-space warnings.
• Setup reminders: Ground clamp placement, cleaning the joint, polarity, duty cycle, and adjusting for wind outdoors.

Trusted Sources For Up-To-Date Information

For safety and compliance, it’s best to go straight to the organizations that set the standards. Start with the OSHA welding, cutting and brazing page, browse the OSHA Publications Library for fact sheets and QuickCards, and reference 29 CFR 1910.252 for workplace requirements.

For fume exposure, use the NIOSH Welding and Manganese topic page alongside the NIOSH Pocket Guide to Chemical Hazards. Available online, as a PDF, or through its mobile web app, it provides RELs, PELs, IDLH values, and respirator guidance.

For technical definitions and career outlooks, visit the American Welding Society and its standards pages. AWS A3.0M/A3.0:2025 is the standard welding terms and definitions reference behind much of the SMAW terminology used in this guide. For occupational data, check the BLS Welders, Cutters, Solderers, and Brazers OOH.

Warning About Unreliable Downloads

Be cautious of random “stick welding basics PDF” sites that recycle outdated settings, incorrect polarity, or unsafe advice. Stick to official sources such as OSHA, NIOSH, and AWS, as well as manufacturer datasheets. If a free PDF lacks citations, a publication date, or links to standards, treat its numbers with caution.

Keep Learning

With this page saved as your stick welding basics PDF and the resources above at your disposal, you have a solid foundation to troubleshoot and build off of. For further reading, consider guides such as advantages of stick welding, all position welding rod guide, alloy steel welding electrodes, and airgas welding equipment guide. From there, you can expand into other processes, such as aluminum mig welding or air arc welding and carbon arc gouging.

When in doubt, check the manufacturer’s datasheet, follow OSHA, NIOSH, and AWS guidance, and print only from trusted sources to keep your shop safe and productive.

Frequently Asked Questions

What is stick welding called officially?

Officially it is Shielded Metal Arc Welding, or SMAW. You will also see it called manual metal arc welding, stick welding, rod welding or ‘stick’.

What is the best stick welding rod for a beginner?

Most beginners start with a 1/8-inch E6013 for its soft, easy arc on sheet and light plate, or an E7018 once they move to stronger structural joints. Use E6010 or E6011 when you need deep penetration on dirty, rusty or thick steel.

What amperage should I use for a 1/8-inch rod?

A common starting point is about 1 amp per 0.010 inch of rod diameter, so a 1/8-inch rod starts around 110-125 amps, typically anywhere in a 90-130 amp range. Fine-tune by reading the bead: too cold and the rod sticks and the bead sits high, too hot and the bead goes flat with excessive spatter.

Should a beginner buy an AC or DC stick welder?

DC is easier to strike and gives a smoother, more stable arc, and it lets you run E6010 and E7018 as specified. AC machines are cheaper and will run general-purpose rods like E6011 and E6013, but you give up some control.

Why does my welding rod keep sticking to the metal?

It is almost always too-low amperage or an arc length that got too short before the metal melted. Increase amps slightly, start with the scratch-start motion, and if the rod welds itself to the part, snap it sideways to break free instead of yanking.

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

Yes. Chipping and wire-brushing between passes prevents slag inclusions, which are internal voids that weaken the weld and can fail inspection. Welding over trapped slag is one of the most common beginner mistakes.

Is stick welding dangerous for a beginner?

Any welding carries risk from ultraviolet radiation, hot metal, electric shock and fumes, but the risks are manageable with the right PPE, ventilation and fire control. Stick produces more fume than MIG, so keep your head out of the plume and weld in ventilated space.

Can I download a free stick welding basics PDF?

Yes – this article can be saved as a PDF from your browser’s print menu, and authoritative free downloads are available from OSHA’s publications library, the NIOSH Pocket Guide (online and PDF versions) and AWS’s free welding resources. Always prefer sourced, current material over unattributed cheat sheets.

How long does it take to learn stick welding?

Most people can lay a consistent bead in a few weeks of regular practice, while competent out-of-position welding on structural work takes months and formal qualification is a separate step. A structured practice plan matters far more than hours spent welding randomly.