Stick Welding Basics: The Complete Beginner’s Guide to SMAW (2026)

A Saturday morning, a broken trailer hitch, and a $99 arc welder from a yard sale — that is how most welders lay their first bead, usually on a piece of scrap while a patient father or uncle watches the electrode stick, glow, and snap off for the tenth time. Stick welding looks almost too simple: a stick, a clamp, a spark. Yet this ‘old school’ process still builds skyscrapers, repairs farm equipment in the rain, and welds pipelines in the field where no gas bottle will ever fit. This guide takes you from that frustrating first arc to a bead you would actually show someone.

Why Stick Welding Basics Still Matter in a MIG-and-TIG World

A Saturday morning, a broken trailer hitch, and a $99 arc welder from a yard sale. That is how a startling number of welders lay their first bead, usually on scrap while a patient father or uncle watches the electrode stick, glow white-hot, and snap off for the tenth time. Stick welding looks almost too simple: a stick, a clamp, a spark. Yet this old-school process still holds up skyscrapers, repairs farm equipment in the rain, and joins pipeline in the field where no gas bottle will ever fit. Before striking that arc, it is worth understanding why stick deserves a beginner’s attention in a world obsessed with MIG and TIG.

What Stick Welding Actually Is

Stick welding is formally called Shielded Metal Arc Welding, or SMAW. In plain language, you complete an electrical circuit with a consumable metal rod coated in flux. When that rod touches the workpiece and is pulled back slightly, an arc forms. That arc generates intense heat, roughly 6,000 to 10,000°F, which melts both the tip of the rod and the base metal underneath. The two fuse into a small pool of liquid steel that solidifies into the weld bead.

OSHA and mainstream industry guides define SMAW as an arc welding process that coalesces metals using an electric arc between a covered, flux-coated metal electrode and the base metal. The flux coating is the clever part. As it burns, it creates a cloud of shielding gas around the puddle and leaves behind a layer of slag, both of which keep oxygen and nitrogen from the air out of the molten metal. Contaminated molten metal means a weak, porous weld, and the flux solves that elegantly, with no external gas bottle required.

Why It Is Called Stick Welding

The electrode holder, commonly called the stinger, grips a 9- to 14-inch rod. As you weld, the rod literally burns away and gets shorter, which is why stick welders constantly feed it forward with their fingers. That consumable rod-and-holder setup is what other processes do not have. A MIG gun feeds wire from a spool; a TIG welder holds a separate tungsten and filler rod. Stick welding is unique in that the filler metal and the shielding system arrive in one simple, self-contained package you can carry in a bucket.

Why Instructors Still Teach It First

Walk into nearly any welding program and beginners usually strike their first arc on a stick machine before they touch a MIG gun. There is a reason. Stick forces you to learn the fundamentals the hard way, which turns out to be the fast way:

• Arc length control. Hold the rod too far away and the arc stutters and spatters; jam it in and it sticks. You learn distance by feel within a few rods.
• Puddle reading. With no automatic wire feed doing the work, you watch the molten pool and react to it, the core skill behind every welding process.
• Settings intuition. You learn to match amperage to rod diameter and material thickness, a skill that transfers directly to MIG and TIG dialing later.

Once stick feels natural, MIG feels like a vacation and TIG feels achievable. The reverse is rarely true.

The Staying Power: Portability, Toughness, and Low Cost

Stick welding has survived for roughly a century because it does things other processes cannot. A basic stick machine is a box with a power cord, two cables, and a holder. No gas cylinder to haul, no spool to load, no torch liner to clog. Many machines run off standard household voltage, and that package can be carried up a ladder, into a crawlspace, onto a rooftop, or to the back forty of a farm field.

Its tolerance for real-world conditions is unmatched. Wind that would blow away a MIG shielding gas stream does nothing to stick welding, because the flux makes its own shield at the puddle. Light rain, rust, mill scale, paint, and dirt are all handled far more forgivingly than in gas-shielded processes. That is why you see SMAW in pipeline and structural work, shipbuilding yards, maintenance departments, storm repair, and agricultural welding. It is even used in extreme forms like railroad thermite welding, where rails are joined in the middle of nowhere.

A Live Skill, Not a Museum Piece

Some beginners worry that stick welding is a dying trade skill. The numbers say otherwise. The U.S. Bureau of Labor Statistics reports roughly 437,700 welder, cutter, solderer, and brazer jobs in the country as of 2025, with median annual pay of $53,750, about $25.84 per hour. The BLS also projects approximately 40,300 openings each year through 2035, largely from retirements and the need to replace workers who transfer to other occupations. You can verify these figures on the BLS Occupational Outlook Handbook page for welders.

The entry path is refreshingly open, too. Typical entry-level education is a high school diploma plus moderate-term on-the-job training. Welding is one of the few skilled trades where a motivated beginner with a helmet and some scrap plate can realistically become employable within months, not years.

What You Will Learn in This Guide

By the time you finish this article, you will be able to:

1. Explain how the stick welding circuit, arc, and flux actually work, including AC versus DC and electrode polarity.
2. Set up a complete beginner’s stick welding kit without wasting money on gear you can skip.
3. Decode AWS electrode numbers like E6013 and E7018 and pick the right rod for the job.
4. Strike an arc, hold a consistent arc length, and run a straight, even bead.
5. Understand welding positions and joints, from flat fillet welds to vertical and overhead.
6. Diagnose your own weld defects and fix them at the machine.
7. Follow a structured 30-day practice plan and know when you are ready for a job test or real beginner projects.

One safety reality check before we go further: stick welding produces intense ultraviolet light, sparks, and metal fumes. Knowing your gear and its limits from day one matters, which is why our welding PPE guide is worth bookmarking alongside this one. Ready? Let us look at what is actually happening inside that arc.

How Stick Welding Actually Works: The Arc, the Flux, and the Circuit

At its core, Shielded Metal Arc Welding (SMAW), more commonly known as stick welding, is a controlled way of melting metal to join it together. While it may look like all sparks and heat to a beginner, there is a precise chain of events happening between the machine, the electrode and the workpiece. Understanding that chain is the key to getting clean, strong beads from the very start.

The Basic Welding Circuit

Every stick weld relies on a closed electrical circuit. This circuit consists of four main components: a power source, an electrode holder (often called a “stinger”), a work clamp (ground clamp) and the workpiece itself. When all of these are connected properly, electricity flows from the machine, through the cables and out of the electrode, traveling across the arc and back through the work clamp to complete the loop.

One of the most important things to know about your machine is that stick welders use constant-current (CC) power sources. Unlike some other processes, these machines are designed to keep the amperage relatively stable, even if your arc length fluctuates slightly. Depending on the electrode you are using, a CC machine can output AC (alternating current) or DC (direct current). Before getting started with your setup, it is always worth double-checking your welding safety gear to ensure you are protected before powering anything up.

Striking the Arc and Forming a Weld Pool

To create heat, the electrode must first form an arc. This is done by touching the tip of the electrode to the base metal, then pulling it back a short distance. That tiny gap is what allows electricity to jump across it, creating an arc that can reach temperatures hot enough to melt steel. As it does so, it melts both the core wire of the electrode and a small amount of the base metal, forming a molten pool known as the weld pool.

Controlling that pool is what separates a rough weld from a solid one. As noted in the Miller SMAW guidelines, the best results come from maintaining a short arc, moving at a uniform speed, and feeding the electrode downward at a constant rate as it melts. If the electrode sticks to the work, free it with a quick twist. If the arc goes out, the electrode was lifted too high. These two fixes alone will save beginners hours of frustration.

Amperage, voltage and heat input all play a part here, too. Amperage controls how much metal is melted (your deposition and penetration), while voltage is largely tied to your arc length. Heat input is the product of those factors over time. For a beginner, the simplest takeaway is this: keep a short, steady arc and travel at an even pace. Small adjustments will have a far bigger impact than overthinking the numbers at first.

The Flux Coating: Shielding, Slag and Stabilization

The real magic of stick welding is not just the metal, but what covers it. The flux coating on the electrode is doing multiple jobs at the exact same time. When heated, it produces a shielding gas that protects the molten weld pool from oxygen, nitrogen and moisture in the air. It also forms a layer of molten slag over the top of the weld, insulating it as it cools and further shielding it from contamination.

On top of that, the flux helps stabilize the arc and can even add small amounts of alloying elements to the finished weld. The Miller SMAW guidelines state that the flux coating creates the shielding gas and the slag covering that protects the weld from contamination, while the electrode core provides most of the filler metal. Because of this protective layer, the weld will look rough and lumpy under the slag until it is chipped away with a hammer and wire brush to reveal the bead underneath.

AC, DC, DCEP and DCEN: What They Mean for You

Stick power sources can output AC, or DC in two polarities: DCEP (Direct Current Electrode Positive, also called reverse polarity) and DCEN (Direct Current Electrode Negative, also called straight polarity). Different electrodes are designed for different currents and polarities, as each combination affects arc stability, penetration and spatter.

For most beginners, the key is not memorizing every combination, but matching your machine to the rod. A good starting point is to follow the electrode manufacturer’s recommendations for your machine’s settings. This is especially helpful when working with common rods, such as the E7018, as selecting the correct polarity can drastically improve your first few beads with minimal guesswork.

Gear Checklist: What You Need to Start Stick Welding (and What You Can Skip)

One of the best things about stick welding is its low barrier to entry. You don’t need a massive shop to get started, but buying random parts will only slow you down. The goal isn’t to buy everything at once, but to buy the right things first. With that in mind, here’s what to prioritize for your first setup.

The Machine: AC vs DC, Amperage Range, and Duty Cycle

For beginners, stick machines fall into two categories: AC-only and AC/DC. AC-only units are lighter and cheaper, but they limit your electrode selection and can create a rougher arc. An AC/DC machine gives you far more flexibility, especially for mild steel, and produces a smoother, deeper arc. If your budget allows for a 160 to 200 amp AC/DC unit, you’ll be able to practice for a long time without outgrowing it.

The most commonly misunderstood spec is the duty cycle. This is the percentage of a ten-minute period that a machine can weld at a stated amperage before overheating. For example, a 20% duty cycle at 160 amps equates to about two minutes of welding and eight minutes of cooling. While that may sound restrictive, you’ll spend most of your practice time chipping, brushing, repositioning, or prepping metal, so it rarely gets in the way. You can learn more about matching rod size, amperage, and machine capacity through Miller’s SMAW guidelines.

The Holder, the Clamp, and the Cables

Your electrode holder (or “stinger”), work clamp, and cables are just as important as the machine itself. Many entry-level units include them, but always verify the cable gauge. Thin cables create resistance, waste amperage, and can overheat. For a 200-amp machine, look for at least 2/0 or 4/0 copper cable for runs over 25 feet. Secure, clean connections are vital, and our guide to welding connectors can help you spot the weak points before they become a problem.

If your arc begins to stutter, your first check should be the ground clamp and the spot of bare metal that it’s clamped to. A poor ground is one of the easiest fixes, yet one of the most overlooked.

Helmet, Clothing, and the PPE You Never Skip

Safety isn’t optional. OSHA requires eye and face protection under 29 CFR 1910.133, with filter lens shades chosen based on the tables found in AWS Z49.1, Safety in Welding, Cutting, and Allied Processes. For stick welding, this typically falls between shade 10 for lighter work and 11 to 13 for higher amperage. A fixed-shade helmet with the correct lens will work just fine, but an entry-level auto-darkening helmet makes striking your first arc far less frustrating.

Below the helmet, you need unbleached, flame-resistant pants and a long-sleeved shirt with a closed collar and cuffs, a cap to catch sparks, leather welding gloves, and leather boots. Rings, loose cuffs, or synthetic fabrics have no place in your welding area. For a full breakdown of each layer and its purpose, check out our complete welding PPE guide.

Small Tools, Fire Safety, and Ventilation

You’ll need a chipping hammer and a wire brush on day one. Slag will cover your first beads, and there’s no way around removing it. From there, focus on your workspace: clear at least a ten-foot radius of combustible materials, keep a fire extinguisher within reach, and never weld on or near containers that held flammable substances without proper cleaning and, in professional settings, a hot work permit.

OSHA covers these precautions under 29 CFR 1926 Subpart J for construction and Subpart Q for general industry. As noted in OSHA’s FS-3647, shielded metal arc welding (SMAW) is among the higher fume-producing arc processes. Never weld in a confined space without adequate ventilation. Something as simple as a box fan pushing fresh air across your work can drastically reduce your exposure.

Budget Breakdown

With a bag of 1/8-inch E6013 and E7018 rods and a stack of mild steel offcuts, a complete, safe setup can be well under $600 for the entry column.

What You Can Skip for Now

Hold off on a multi-process welder, a decorative welding cart, a $200 rod oven, or a full fume extraction system until you’ve put in consistent practice. Stick welding is incredibly forgiving gear-wise. A solid machine, real PPE, clean metal, and a fire-safe floor will carry you through months of beads. Everything else is a reward, not a requirement.

Stick Electrode Decoded: Reading AWS Numbers Like E6013 and E7018

Walk into any welding supply store and the electrode wall looks like alphabet soup: E6010, E6013, E7018, E7014. Those five characters are not random. They follow the American Welding Society’s AWS A5.1 specification, and once you can read them, you essentially know what the rod will do before you ever strike an arc. For a deeper dive into rod families and polarity, see our full guide to what electrodes are in welding.

The Four Digits, Decoded

Take E7018 apart one piece at a time:

• E — the rod is a consumable coated electrode (as opposed to bare filler wire).
• 70 — the first two digits give the minimum tensile strength of the deposited weld metal in thousands of pounds per square inch. So 70 means 70,000 psi, about 480 MPa.
• 1 — the third digit is the usable welding position. A 1 means all-position work: flat, horizontal, vertical and overhead. A 2 means flat and horizontal only — that’s why E7024 is a fast-fill flat-position rod.
• 8 — the final digit identifies the flux coating type and compatible current. An 8 is a low-hydrogen, iron-powder coating normally run on DC electrode positive.

Now decode E6010: a 60,000 psi electrode, all positions, with a cellulose-type coating that runs on DCEP. The same structure explains every other rod on that wall.

The Seven Mild-Steel Rods You’ll Actually Meet

Miller’s electrode range covers the rods a beginner runs into most often (common stick electrodes explained):

The key differences are practical. E6010 runs on DCEP with a digging arc that cuts through rust, oil, paint and dirt, which is why pipeline root passes are almost always 6010 or 6011. E6013 runs on AC or DC with a soft arc and moderate penetration, making it forgiving on clean sheet metal and the classic “first rod” for students. E7018 is a low-hydrogen electrode delivering high impact strength even in cold weather, and it is the workhorse on carbon, high-carbon, low-alloy and high-strength steels — anything structural where the weld has to survive a load. Hobart Brothers’ selection guide walks through these trade-offs in more depth (choosing the right stick electrode).

Storage: Where Beginners Ruin Good Rods

Low-hydrogen 7018 rods are hygroscopic — the coating drinks moisture out of humid air, and that hydrogen ends up in the weld as porosity or, worse, delayed cracking. Two numbers explain the packaging: H4 means the rod holds under 4 milliliters of hydrogen per 100 grams of deposited metal, H8 holds under 8. The R suffix (as in E7018R) means the rod passed a moisture-test requirement at the factory. H4 is the better buy and costs little more.

• Keep unopened rods in their sealed foil or carton until the moment you use them.
• Once opened, store rods in a heated rod quiver or rod oven at the manufacturer’s temperature.
• Re-bake according to the rod maker’s instructions if they’ve been exposed; a soaked 7018 cannot be rescued by the arc.
• Cellulose rods like 6010 and 6013 absorb far less moisture, so sealed bag storage is usually enough for them.

Get this habit right early and you will skip one of the most frustrating beginner problems — beautiful-looking 7018 welds that pop and pit as soon as the slag lifts. Electrode choice and storage are half of a good setup; the other half is your gear, which we covered in our complete welding PPE guide.

Your First Bead: A Step-by-Step Stick Welding Technique Walkthrough

Enough theory. Now comes the part that actually makes you a welder: laying a bead. Stick technique is not complicated, but it is unforgiving of sloppy habits, and it will expose them in about four seconds. Here is the whole sequence, from dialing in the machine to chipping your first pass.

Step 1: Set the Machine Before You Strike Anything

Dial in amperage first. A dependable rule of thumb for mild steel is roughly 1 amp per 0.001 inch of electrode diameter, then adjust for thickness and position. A 1/8-inch (0.125) rod starts around 125 amps on quarter-inch plate; a 3/32-inch rod starts near 90–100 amps. Our detailed 5/32 E7018 amperage guide shows how far that starting number moves once thickness and position change.

Then check polarity. Most beginners run DC electrode positive (DCEP) for 7018 and 6013 work, and DCEN or AC for 6010. Wrong polarity does not always kill the arc — it gives you weak penetration and a spattery pool that you will blame on your hands. While you are at it, make sure your cables and connections are tight; our guide on welding cable connectors covers the loose-connection faults that cause random arc surges.

Step 2: Strike the Arc

There are two methods. The scratch start works exactly like striking a match: drag the rod lightly across the plate, then lift. The tap method is what Miller’s beginner guidance recommends — bring the electrode straight down to the workpiece, then lift slightly to start the arc. Tap is cleaner on flat plate; scratch is often easier outdoors or on dirty material.

Sticking happens when the rod touches, does not lift, and the amperage welds it in place. Do not yank. Twist it side to side like breaking a twig, or briefly reverse polarity on a machine that allows it, and the rod usually pops free.

Step 3: Hold the Right Arc Length

Arc length is the distance from the tip of the rod to the puddle, and the single most common beginner error. Keep it approximately equal to the diameter of the electrode’s core wire — about 1/8 inch for a 1/8-inch rod. A long arc loses its shielding gas blanket, spits metal, and leaves porosity buried in the bead. Drag too close and you will feel it stick.

Step 4: Angles, Travel Speed, and Watching the Puddle

Work angle: about 90 degrees to the plate for flat beads, tilted slightly in the direction of travel. Travel angle: roughly 10–15 degrees of drag, or push, depending on the rod and process — see our push vs. pull stick welding breakdown. Too steep an angle digs the rod into the pool; too flat and the arc blows ahead of you.

Travel speed should be slow enough that the puddle stays two to three rod diameters wide, fast enough that it does not pile into a hump. The mental shift that separates beginners from competent welders: watch the puddle, not the rod. The rod burns away in front of you, and your job is to feed it steadily into the leading edge of the pool while keeping the arc gap constant. The rod gets short and hot in your hand — that is normal; wear proper leather gloves and expect heat to travel up the stub.

Stopping and restarting matter too. When you finish a pass, drag the rod out in a slight circular motion to avoid craters. To restart and tie into the previous bead, strike your arc on cold metal just behind the crater, bring it up to temperature, then move forward and overlap the crater by about half a bead width.

What a Good Bead Looks Like

Consistent width end to end, evenly spaced ripples (they come from steady travel speed, not artistic waving), a flat to slightly convex profile, clean fusion at both toes, and no pinholes after you chip and brush the slag. A narrow, tall, lumpy bead means too cold or too fast; a wide, flat bead with notched edges means too hot or too slow.

Your Starter Exercises and Practice Ladder

1. Days 1–2: Scratch and tap starts only. Aim for 20 successful arcs without sticking.
2. Days 3–5: Stringer beads on flat plate — ten parallel beads, each about half a rod long, every one the same width, no stops.
3. Week 2: Lap joints, then T-joints, where you fuse two planes instead of one, plus circle and whip motion patterns.
4. Week 3 onward: Vertical and overhead positions.

Our electrode selection guide covers rod choice for each exercise, but a 1/8-inch 6013 or 7018 will carry you through all of them.

Most first-day beads look like bird tracks. By day five they look like welds. That gap is closed entirely by repetition, and nothing closes it faster than one boring Saturday on a stack of scrap plate.

Welding Positions and Joint Types: Flat, Horizontal, Vertical, Overhead

Gravity is the one welding teammate you can never negotiate with. Run a perfect bead on a flat plate and it will still betray you the moment you flip the plate upright and try the same move. Position changes everything: your amperage, your travel angle, your rod choice, even how you hold your body. If you want to move from “making sparks” to actually building things, understanding positions and joints is the next real step.

The Four Basic SMAW Positions

Welding codes describe four positions, and each has a flat/orientation letter:

• 1F / 1G (Flat): The weld puddle sits in the joint and gravity works for you. This is where every beginner starts and where production work happens when the shop can rotate the part.
• 2F / 2G (Horizontal): The weld runs along a horizontal line, but the joint itself may be vertical. Gravity now pulls the puddle downward, so you fight sag with technique.
• 3F / 3G (Vertical): The weld travels up or down a vertical joint. This is where puddle control gets serious.
• 4F / 4G (Overhead): You weld beneath the workpiece, and gravity tries to drop the molten metal on you. It’s the hardest position and the one that separates competent welders from hobbyists. For a deeper dive, see our Overhead Stick Welding guide to 4F and 4G technique.

The “F” stands for fillet weld and “G” for groove weld. Same numbering, different joint geometry.

Reading the Third Digit: Which Rods Go Overhead

You already met the AWS classification system in the electrode section, but the third digit earns a second look here because it literally tells you where a rod is allowed to go:

• 1 = all positions (flat, horizontal, vertical, and overhead)
• 2 = flat and horizontal only
• 3 = flat only

That’s why E7018 and E6010 are workhorse rods: the “1” in the third digit means they’ll weld in any position. It’s also why E7024, with its heavy iron powder coating that boosts deposition rate, is restricted mostly to flat and horizontal work — the powder-heavy puddle simply won’t stay put overhead. Read the full breakdown in What Are Electrodes in Welding?. For amperage settings on common sizes, our 3/32 E7018 amperage guide and 5/32 E7018 settings guide give starting points by rod diameter.

The Joints You’ll Actually Weld

Positions describe orientation; joints describe geometry. Beginners meet two families:

• Fillet joints: T-joints, lap joints, and corner joints. Two pieces meet at an angle and you fill the inside corner. These are the bread and butter of brackets, frames, and general fabrication.
• Groove joints: V-grooves, single- and double-V bevels, and open roots, where the two pieces have a gap that must be fully penetrated. Groove welds carry the structural loads in plate fabrication and pipe.

Open-root pipe practice is the classic test of skill: you weld the root pass through a gap with molten metal hanging upside down inside the pipe. Our Pipe Welding Procedures guide walks through WPS, positions, and pass sequences in detail.

Vertical-Up vs Vertical-Down: Two Different Tools

Vertical welding isn’t one technique — it’s two, and choosing wrong weakens the weld:

• Vertical-up (3G uphill): You start at the bottom and climb. The puddle solidifies behind you, so you get deep penetration and a strong, controlled bead. This is the standard for E7018 structural work — building columns, heavy plate, anything inspected to structural codes. It’s slower, but strength is the point.
• Vertical-down (3G downhill): You start at the top and run down quickly. The rod burns fast, the bead is shallow and clean, and heat input stays low. E6010 is the classic choice here, especially for fast root passes on pipe and for welding dirty or rusty metal where its digging arc cuts through contamination.

The general pattern: fast-fill rods like 6010 and 6011 love vertical-down on thin material; low-hydrogen structural rods like 7018 belong on vertical-up when strength matters.

Start flat, get comfortable horizontal, then earn vertical and overhead one session at a time. Position fluency is what turns a weekend welder into someone a shop will actually hire.

10 Classic Beginner Stick Welding Mistakes (and Exactly How to Fix Them)

Every beginner welder ends up with a few ugly beads. Instead of scrapping the whole project, treat those beads as feedback. They will tell you exactly what went wrong if you know how to read them. These are the ten mistakes that trip up most beginners, paired with specific fixes to help you correct them as you go.

1. The Rod Sticks to the Work

A rod that fuses to the plate is usually a sign of low amperage or a timid strike. Strike with a confident, scratching motion, like lighting a match, and lift as soon as the arc catches. If it still sticks, twist it free quickly, but do not yank the cable, as that can damage the holder. A small amperage bump is often all it takes.

2. Arc Length Is Too Long

If your arc is much longer than the diameter of the core wire, expect heavy spatter, a wide and flat bead, and undercut along the edges. Even with the correct settings, distance is the culprit. The simplest fix is to move the tip closer to the work and keep it steady.

3. Wrong Polarity

The wrong leads can kill an otherwise correct setup. For example, certain rods have strict polarity requirements, so always check the electrode manufacturer’s polarity before you strike. Matching your machine’s leads takes only a few seconds, but it can save an entire rod from going to waste.

4. Wrong Amperage in Either Direction

Amperage is where most tuning happens. Too cold, and your bead will sit proud and convex with coarse spatter and poor fusion at the toes. Too hot, and it will flatten out, wander, and undercut the edges. Start with the rod manufacturer’s amperage range and adjust in 5-amp steps. For a step-by-step breakdown, check out our 5/32 E7018 amperage guide.

5. Picking the Wrong Electrode

Not every rod is suited for the job at hand. As Miller notes, E6013 welds best over clean, new sheet metal and is not recommended for many critical structural applications because it lacks Charpy V-notch impact capability. A bead can look perfect while still falling short for its service, so match the rod to the demands of the project.

6. Poor Joint Prep

Mill scale, rust, oil, and paint all interfere with fusion. OSHA and industry guidance explicitly list welding over preservative coatings and in poor ventilation as hazards requiring specific controls. Grind or brush the joint to shiny metal for at least half an inch on either side, and degrease anything that has been on a shop floor.

7. Rushing Your Travel Speed

Moving too fast thins the puddle, cuts a groove, and creates undercut or cold lap at the toes. Slow down until the puddle is about as wide as the rod is thick, and let it wet into both plates before you advance. Consistent rhythm will do far more than forcing the rod along.

8. Trapping Slag

Slag is non-metallic, so trapping it under another pass is a discontinuity, not a cosmetic flaw. For multi-pass welds, especially with 7018, chip thoroughly with a chipping hammer and wire brush between every pass until the surface is bright. This one step prevents the majority of slag inclusions.

9. Porosity from Moisture or Wind

Pinholes and craters often come down to shielding. Wind will disrupt the flux envelope, so weld indoors or block drafts. Moisture is just as dangerous, which is especially important for low-hydrogen electrodes.

10. Bad Stops, Starts, and Arc Blow

Restart by overlapping the previous crater slightly, striking the arc ahead of the stop, and dragging back. Craters at the end of a rod can crack, so back up briefly before lifting. Arc blow is magnetic and common on DC. You can reduce it by switching to AC or repositioning the ground clamp.

How to Read Your Own Weld in Ten Seconds

• Convex, ropey, spattered: Too cold, or your arc length is too long.
• Flat, wide, thin with edge grooves: Too hot.
• Wandering, crackling arc: Wrong polarity or contaminated base metal.
• Surface pinholes after chipping: Moisture, wind, or a dirty joint.

Once these fixes become muscle memory, you can move on to more advanced topics, such as joint design and multi-pass strategy, covered in our pipe welding procedures guide. Keep reading your beads, and they will start improving with every rod.

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

Every beginner eventually asks it at the weld shop counter: should I just buy a MIG machine instead? MIG earns its “easy mode” reputation, but there is no single winner here. The right answer depends on what you want to build, where you plan to work, and which skill you actually want in your hands.

The Three Processes Side by Side

Here is how SMAW (stick), GMAW (MIG), and GTAW (TIG) compare on what matters to someone starting out:

Why MIG Feels Easier (And Why That’s a Trap)

MIG is genuinely the smoothest on-ramp: you pull the trigger, wire feeds itself, and the arc starts without the fumbling that makes stick humbling in week one. Faster deposition rates also mean MIG wins on production speed in a shop. If your goal is welding sheet metal in a garage, our step-by-step MIG welder setup guide will get you running in an afternoon.

The trade-off is dependency. MIG needs a shielding gas bottle: transporting a heavy cylinder, paying for refills, watching your flow rate, and losing weld quality the moment a breeze picks up. That is why gas handling and ventilation deserve serious attention, and the MIG welding safety precautions guide covers the full picture.

Why TIG Is the Long-Term Goal

TIG produces the most beautiful and precise welds of the three, and it is the process you graduate to when appearance and metallurgical control matter. It is also the slowest and most demanding: one hand holds the torch, the other feeds filler rod, and your foot controls amperage while you manage a puddle the size of a shirt button. For sheet work in particular, our TIG sheet metal guide covers the settings and techniques that separate a clean weld from a warped panel.

Why Many Schools Still Start You on Stick

Welding schools often hand beginners a stick rod before they ever touch a MIG gun, and the reason is pedagogical, not stubbornness. Stick forces you to manage arc length, travel speed, rod angle, and puddle observation with no automation helping you. Run a consistent 7018 bead and switching to MIG later feels like a relief. Learn only MIG first and you can develop habits that fall apart the moment wire feed stops doing the work.

There is a career argument too. Employers in construction, pipeline, and maintenance still screen for stick capability because the process goes where gas bottles cannot. MIG and TIG are shop skills; stick is a survival skill. A good 30-day practice plan, covered in the next section, will make that distinction click quickly.

The Real Answer

If you want the cheapest, most portable, most weather-tolerant start, buy stick. If you want to weld clean sheet metal in a controlled shop, buy MIG. If you want precision and artistry, learn TIG. If you can only afford one machine, an AC/DC stick welder or a MIG/TIG combo unit covers more ground than either alone.

PPE standards, meanwhile, do not change with the process. The helmet, jacket, gloves, and boots you need for stick are the same ones you will wear for MIG and TIG, so review the complete welding PPE guide once and you are covered for all three. For broader regulatory context, OSHA’s welding, cutting, and brazing page lays out requirements that apply across every arc process.

The bottom line: do not pick the easiest process, pick the one that matches the work you want to do. Skill transfers, but habits stick. Learn on stick, and every other process gets easier.

Getting Good: A 30-Day Stick Welding Practice Plan and How to Know You’re Ready

Knowing how an arc works and laying a clean bead are two different things. The gap closes the way it always has: cheap scrap, a stack of rods, and about thirty days of deliberate practice. Deliberate means working on one specific thing per session, not randomly burning rod until the metal looks sad. Here is the plan I give people after their first frustrating afternoon.

The 30-Day Practice Ladder

Week 1: Scratch starts and straight beads. Set the machine around 90 amps for 1/8-inch rod on 1/4-inch plate. Your only goals: strike an arc without it sticking, hold a consistent arc length, and run a straight bead along a chalk line. Expect sticking. When the rod grabs, twist it slightly to break free rather than yanking. If you stall in the same spot, you are probably too cold or your angle is too steep.

Week 2: Control drills. Run beads with your non-dominant hand supporting the dominant one, then try small circles, then a slight whip motion (advance, pause, retreat). Practice travel speed on purpose: run three beads, one too slow, one too fast, one right, and compare them side by side. For rod angle and travel direction, our guide on push or pull stick welding covers which direction suits which joint.

Week 3: Joints in flat. Move to T-joints and lap joints. Tack both ends, check for square, then run a fillet. Focus on tying into both plates equally: half the bead on the vertical member, half on the horizontal. A bead sitting on one side is the most common beginner fillet error. Get comfortable with 7018 on DC electrode positive and 6013 on either polarity.

Week 4: Out of position, then a project. Vertical-up fillets on 1/4-inch plate, then a short overhead pass with amperage dropped roughly ten percent. Once you hold a puddle overhead, build something real: a shelf bracket, a gate hinge, or a repair on a broken tool. Nothing exposes weak technique like a project where joints must line up. If overhead still fights you, the specifics in our overhead stick welding guide will help you dial it in.

How to Judge Your Own Welds

After chipping the slag, ask four questions of every bead:

• Consistency: Is the width the same end to end, or does it wander?
• Tie-in: Do the edges blend into the base metal, or sit on top like a caterpillar?
• Surface: Any porosity, pinholes, or trapped slag?
• Profile: Slightly convex on a fillet is fine; flat, wide, and gouged at the edges means too hot.

One trick speeds learning more than anything else: film your arcs. Prop a phone at a safe distance behind your lens, or film the finished bead after cleaning. Watching a recording of your travel speed and rod angle is brutally honest feedback; you will spot the exact moment the puddle gets away from you.

How to Know You’re Ready for More

You are ready when you can run ten consecutive beads that look nearly identical, tie into a previous weld without a cold start, and produce no porosity after cleaning. The next step is a qualification test, not more practice.

Structural welding in the United States is commonly governed by AWS D1.1, which defines qualification tests for welders and welding procedures. Passing a D1.1 plate test in an approved position means a shop can put you on structural work immediately. Trade school test plates follow the same logic, and pipeline and pipe shops run their own coupon tests, which our pipe welding procedures guide walks through.

Certification proves skill to an employer who has never met you, and it shows up in pay. According to the U.S. Bureau of Labor Statistics, the top 10% of welders earned more than $77,530 while the bottom 10% earned less than $39,240. The BLS notes that welders typically need a high school diploma plus technical training or moderate-term on-the-job training, with vocational schools, community colleges, apprenticeships, and the military all common pathways into the trade.

The gap between those numbers is not talent. It is skill built on purpose, verified by a certificate, and applied in the positions and processes employers actually pay for.

Safety First, Always: Fumes, Fire, Electricity, and Eye Protection

You have now covered machine setup, electrode codes, arc technique, welding positions, and the mistakes that stall every beginner. One subject remains, and it is the one that matters most: walking out of the shop in the same condition you walked in. The U.S. Bureau of Labor Statistics notes that welders may work outdoors in all weather or indoors in confined areas, and often work more than 40 hours per week. Long hours around a live arc add up, which is why safety is not a chapter you skim once. It is a short list of habits you repeat every single session.

Breathe First: Ventilation and Welding Fumes

The flux coating that makes stick welding so forgiving also releases fumes, and what comes off the plate matters as much as what comes off the rod. Mild steel produces iron oxide and manganese; welding stainless steel, chrome-moly, or galvanized steel adds hexavalent chromium to the list. OSHA regulates that one tightly: the permissible exposure limit is 5 µg/m³ as an 8-hour time-weighted average under both 29 CFR 1910.1026 for general industry and 29 CFR 1926.1126 for construction.

The practical rules are simple. Weld in open air or use local exhaust ventilation positioned close to the arc. Never weld in a confined space without forced ventilation and an atmospheric monitor, and never rely on a respirator to rescue a bad ventilation plan. Learn more about respiratory and body protection in our guide to welding PPE. OSHA’s own welding, cutting, and brazing page and its 29 CFR 1910 Subpart Q — including 1910.252 general requirements and 1910.254 for arc welding and cutting — spell out both the ventilation and fire-prevention duties that apply to you.

Fire: The Hazard That Keeps Burning After You Stop

An arc throws sparks far farther than beginners expect, and smoldering paper, sawdust, or oily rags can flare up long after you rack the electrode. Before striking an arc, clear or protect combustibles within roughly 35 feet, check overhead and behind the workpiece, and keep an extinguisher within reach. Assign a fire watch whenever you work on or near combustible floors and walls, and keep that watch going after the work stops. In shops and on job sites, hot work requires a permit system that names the location, the worker, the time window, and the fire watch — 29 CFR 1926 Subpart J covers the same duties in construction, and OSHA’s welding fact sheet summarizes both.

Electricity, Arc Light, and Cylinders

Stick machines are transforming, welding-grade power, so respect the circuit. Inspect cable insulation and cable connectors for cracks before every session, never weld while standing in water or on wet concrete, keep the work clamp on clean metal, and unplug or switch off before changing leads. If you feel a tingle, stop and fix the ground.

Arc radiation is equally unforgiving. Ultraviolet light burns corneas in minutes and blinds bystanders reflected off shiny metal, so Oregon OSHA guidance requires that arc welding operations be isolated so other workers are not exposed to direct or reflected arc radiation. Weld behind curtains or a screen, warn people before you strike, and choose the right lens shade. Our welding PPE breakdown covers shade selection in detail. Compressed gas cylinders belong upright, chained, capped when not in use, and far from heat — never grease an oxygen fitting or drop one.

Two quieter hazards deserve a mention: chipping slag and grinding produce high noise levels, so wear ear plugs or muffs, and handling plate and rod stock strains backs and fingers — lift with your legs, and treat burns early. Our weld burn first aid guide explains what to do when the hot metal wins anyway.

The Complete Journey: What You Now Know

Look at the ground you have covered: why stick welding remains a beginner’s best teacher in a MIG-and-TIG world, how the arc, flux, and circuit actually work, which gear matters, how to decode an E7018, how to run your first bead, how positions change everything, the ten mistakes to fix, how stick compares to MIG and TIG, and a 30-day plan to get competent. Layer safety on top of that and you have something rare: a beginner who understands the whole process, not just the spark.

Reference AWS Z49.1 safety guidance as your permanent companion — it is the standard welding shops build their rules around. Nothing here replaces hands-on training or a certified supervisor, so start small, stay curious, and ask questions at your local shop. Your first bead will be ugly, your tenth will be straighter, and your fiftieth will be one you are proud of. Strike the arc.

Frequently Asked Questions

What is stick welding in simple terms?

Stick welding, officially called Shielded Metal Arc Welding (SMAW), joins metal by striking an electric arc between a flux-coated consumable electrode and the workpiece. The arc melts both the rod and the base metal into a shared puddle, while the flux burns into a shielding gas and a protective slag layer.

What is the best rod for a complete beginner?

Most instructors recommend starting with E6013 for its soft, forgiving arc and easy slag removal, then moving to E6011 and E7018. E6013 is great for clean sheet metal and practice plate, while E6011 and E7018 teach the deeper-penetration and low-hydrogen skills used in real structural work.

What does E7018 mean?

E means electrode, 70 means the weld metal has a minimum tensile strength of 70,000 psi, the 1 means it can be used in all welding positions, and the 8 indicates a low-hydrogen iron-powder coating. Extra suffixes like H4 or R indicate hydrogen content and moisture resistance.

Should a beginner learn stick or MIG first?

Both are valid, but stick welding teaches arc and puddle control in a way that transfers to every other process, and it is far more portable and field-friendly. If your goal is quick hobby projects indoors, MIG is easier; if you want structural, outdoor, or repair skills, start with stick.

Why does my electrode keep sticking to the metal?

Usually the amperage is too low, the arc was not struck cleanly, or you let the arc length collapse to zero. Raise amperage slightly, use a quick scratch or tap to start, keep a consistent short arc, and if the rod does stick, give it a fast twist to break free before it welds itself in place.

What amperage should I use for stick welding?

A common starting point is roughly 1 amp per 0.001 inch of electrode diameter — so about 90–100 amps for a 1/8-inch rod. Adjust down for out-of-position welding and thin material, and up for thick plate and flat-position work, then fine-tune by reading the bead.

Do I need gas for stick welding?

No. That is one of stick welding’s biggest advantages. The flux coating on the electrode generates its own shielding gas and slag cover, so there is no bottle to carry, no gas line to manage, and no shielding gas to be blown away by wind.

How dangerous are welding fumes, really?

They are a genuine health hazard. OSHA identifies welding fume as a source of hazardous substances including manganese and hexavalent chromium, and it regulates Cr(VI) at an 8-hour PEL of 5 µg/m³. Always ventilate, work outdoors or with fume extraction, and use respiratory protection when engineering controls are not enough.