Easiest Welding Rod to Use: E6013 vs 6011 vs 7018

There are two boxes of rods on the bench, one marked E6013 and one marked E7018, and both are labeled “for carbon steel.” A beginner picks one, gets a sputtering mess that looks like a rejected weld, and starts to wonder whether the machine is broken. The truth is that both rods work — but they are not equally forgiving, and the easiest welding rod to use depends on your machine, your metal, and how much patience you have. Short answer: the 3/32-inch E6013 is the easiest welding rod to use for most first-time welders, and this guide explains exactly why, when it backfires, and how to get a good bead on your first try.

Easiest Welding Rod to Use? Start With the E6013

If you want one straight answer, buy a 3/32-inch E6013 and stay on it until your beads are consistent. For beginners learning stick welding (SMAW) on mild steel, it is the most forgiving electrode on the shelf. It is the size most welding schools hand a beginner first and the diameter most shops actually stock, so you can grab a box and practice the same day.

Why it feels easy

Why it is easy	What you actually notice	Why it helps a beginner
Near-foolproof arc strike	The arc lights with a scrape and a pop, even cold-starting on a rusty electrode tip.	You learn rod movement, not arc starting.
A forgiving arc	It tolerates a wandering arc length and freezes the puddle slowly enough to fix a mistake.	Errors give a lumpy bead, not a cold slug.
Low heat, shallow penetration	Little spatter, a modest pool, and far less chance of burning through 16 or 20 gauge sheet.	Thin steel does not become a smoking hole.

What the designation actually promises

The E6013 is classified in AWS A5.1 as a high titania (rutile) potassium electrode. That says it is usable in flat, vertical, overhead and horizontal positions and runs on AC or DC of either polarity, so one box works on a modern inverter, a DC machine or an old AC buzz box. Its weld metal has a minimum tensile strength of 60,000 psi (414 MPa) and a minimum elongation of 17 percent. See the Lincoln Electric overview of AWS electrode classifications for what the digits mean.

The 3/32-inch size, 2.4 mm, is the most commonly stocked and sold E6013 diameter: a bead narrow enough for thin or medium plate, and an arc wide enough for a beginner to see.

Four variables decide how easy any rod feels

“Easy” is not a property of the rod alone. Four things decide it:

• Coating type — rutile, cellulosic, iron powder and basic (low hydrogen) behave very differently at the arc, and this one word decides how it strikes and digs.
• Diameter — too fat for your plate dumps heat and burns through; too thin and the arc will not stay stable.
• Machine compatibility — AC versus DC and open circuit voltage can rule a rod out entirely.
• Base metal cleanliness — no electrode fuses reliably through rust, mill scale, paint or oil. A clean weld starts before the machine is switched on.

Easiest is not the same as best

Be clear about the E6013’s job. It is a training and light-fabrication electrode: brackets, shelves, gate hardware, repair work. It is not a structural steel rod and is not specified for code-governed fabrication under AWS D1.1, so certified structural welds, heavy plate and restrained joints need a low-hydrogen electrode instead. Read the side-by-side comparison of common stick electrodes before committing to anything structural.

Why the runners-up are harder

The E6011 is cellulosic: it digs aggressively, throws heavy spatter, freezes the puddle fast, and demands a whip-and-pause rhythm that is genuinely hard to learn. Excellent on dirty or rusty steel and on pipe, but not where a beginner should start.

The E7018 is low hydrogen, with a minimum tensile strength of 70,000 psi (482 MPa) and a minimum yield of 58,000 psi (399 MPa). It makes beautiful, strong welds on structural steel, but it resists restarts, wants dry or heated storage once opened, and punishes sloppy arc control. The right rod for the job, the wrong rod for the first week.

Stick welding also remains the easiest process to begin with: the equipment is cheap, portable, and shrugs off wind, dust and awkward outdoor work sites. For the longer argument, read why SMAW still wins, and browse the all-position welding rod guide when you are ready to pick a second rod for a second job.

What the Numbers on the Rod Box Actually Mean (AWS A5.1)

Walk into a welding supply counter and you will usually get a confident answer about stick electrodes that is probably wrong. The counter person points at a box, says “the 6013 is the easy one,” and moves on. The real skill is reading labels yourself.

All stick electrode classifications come from AWS A5.1, the specification for covered electrodes for arc welding. Learn the code and the label becomes a spec sheet.

Breaking the Code Down Digit by Digit

Read a rod marked E6013 left to right:

• The leading E means covered electrode for the shielded metal arc welding process, SMAW, the formal name for stick welding. Anything else is a wire or filler rod.
• The two digits after the E give the minimum tensile strength of the deposited weld metal in thousands of pounds per square inch. E60 means at least 60 ksi, roughly 60,000 psi; E70 means at least 70 ksi. It sets the strength class of your weld.
• The next digit is the usable welding position. A 1 means all position: flat, horizontal, vertical and overhead. A 2 limits you to flat and horizontal fillet welds only. A 4 means flat, horizontal, vertical down and overhead, but not vertical up.
• The final two digits identify the coating type and required polarity, where arc behavior is decided and the easiest rod to use is won or lost.

So E6013 reads as: covered electrode, minimum 60 ksi tensile, all position, high titania potassium coating for AC or DC in either polarity.

The Coating Types You Will Run Into

Classification	Coating	Polarity	Arc behavior
E6010	High cellulose sodium	DC+ only	Deep penetration, heavy spatter, pipe root rod
E6011	High cellulose potassium	AC or DC+	Same digging arc as the 6010, runs on AC
E6012	High titania sodium	AC or DC−	Easy arc, limited outdoor use
E6013	High titania potassium	AC or DC, either polarity	Beginner favorite: quiet arc, easy slag
E7014	Iron powder titania	AC or DC+	Faster deposition, good fill and cap passes
E7015 / E7016 / E7018	Low hydrogen (basic)	AC or DC+	Structural, low hydrogen, dry storage
E7024	Iron powder titania	AC or DC+	Fastest deposition, flat and horizontal fillet only

Why the Coating Word Changes Everything

Four coating families cover nearly every electrode in the shop, and each one decides how the arc behaves and how the rod must be stored.

• Rutile (titania) coatings, like the one on an E6013, give a stable, low-voltage arc and a quiet puddle that strikes easily and tolerates a wandering arc length. That is the beginner appeal.
• Cellulosic coatings, the E6010 and E6011 family, burn hot and dig deep, throwing heavy spatter and a thin, flaky slag. They cut through rust, scale and dirt, but give a rougher bead and a steeper learning curve.
• Iron powder coatings put iron powder in the core and deposit faster, which is why the E7014 and E7024 are production favorites. The hot arc and flat-only limit make the E7024 a poor training rod.
• Low hydrogen (basic) coatings produce weld metal with very low diffusible hydrogen, which matters on restrained joints, thick plate and high-carbon steel where hydrogen cracking is a risk. They resist restriking and must be kept dry. AWS A5.1 lists E7015, E7016, E7018, E7028 and E7048, and E7048 is restricted to vertical-down work.

Optional Suffixes You May See

Some rods carry extra letters and digits for special qualifications:

• -1 means the E7018 was impact tested at minus 50 F, so it carries a tougher low-temperature notch toughness rating.
• H4 means no more than 4 mL of diffusible hydrogen per 100 g of weld metal, a stricter version of the basic classification.
• R indicates a moisture-resistant covering, so the rod tolerates damp storage better than the standard version.

Rods like E7018-1 or E7028-H4 on the shelf carry these suffixes. They are not gimmicks, just the manufacturer confirming the rod meets extra criteria.

Decoded once, you can evaluate options on your own terms in any shop. If you are still comparing processes rather than rods, our all position welding rod guide breaks down how position ratings affect project choices, and why stick welding still wins covers where SMAW fits against MIG and flux core.

One last note: the tensile figure tells you the strength class of the deposit, not whether the joint is code compliant. Structural acceptability is a separate question governed by AWS D1.1 and its welding procedure specifications, which is a good reason to keep beginner and production rods in separate mental drawers.

Why the E6013 Feels So Forgiving: Rutile Coating, Arc and Slag

Strip the label off any stick electrode and the coating decides how it behaves. The E6013 carries a high titania, or rutile, coating, the most even-tempered of the four common coating families. The titanium oxide in the flux stabilizes the arc at a low voltage and keeps the molten puddle quiet instead of violent. That one chemical choice explains why the E6013 is the rod beginners love and why experienced welders still keep a box of it for sheet metal. The AWS classification breakdown shows how the coating family is baked into the electrode number itself.

Compare that to the alternatives. Cellulosic coatings (E6010 and E6011) burn with a fast, digging arc that melts the base metal aggressively and throws heavy spatter. Basic, low-hydrogen coatings (E7018) are quiet and clean but chemically demanding. This side-by-side look at the common stick rods is worth reading once, because the difference in feel is far larger than the numbers on the boxes suggest.

The arc strikes easily and forgives a wandering length

The first thing you notice with a rutile rod is that it strikes almost every time, including from a cold start. That matters more than it sounds. Most early failures are failed strikes rather than failed welds, and a rod that restarts on demand keeps you welding instead of scratching and re-striking. The arc also tolerates a wandering length far better than a low-hydrogen rod: if your hands drift and the arc grows long while you reposition, the E6013 keeps a steady, crackling hiss and gives you a few seconds to fix it before anything ugly happens.

Low-hydrogen electrodes are the opposite. Their coating keeps hydrogen out of the weld metal, and starting and holding that arc needs a higher open circuit voltage, typically at least 70 V. On a low-OCV AC machine, an E7018 arc can struggle to strike and may die mid-bead. Worse, the 7018 core wire burns back into its own molten flux, so a rod you stop mid-bead turns into a soft, wet slug that will not restart cleanly. A rutile coating burns off in a thin, even sheath, leaving a fresh core ready to go again.

Slag that peels off in sheets

Rutile slag is heavy and dense. It forms a thick, solid cap over the bead that you can lift or peel away in sheets with the end of the electrode holder, rather than the thin, flaky blanket a cellulosic rod leaves behind. Less time scraping and grinding means less time with your head down in the fumes and fewer chances to grind into your own finished bead.

The fill-freeze puddle

Rutile electrodes are described as fill-freeze. The coating breaks down into a slag that stays fluid long enough for you to move the puddle around, then freezes slowly enough for you to correct your travel speed or rod angle before it locks up. The puddle waits for you, so a beginner can build a bead in one pass instead of chasing a fast-freezing pool.

Cellulosic rods behave in reverse. The digging arc floods the joint and the puddle stiffens almost as fast as you travel, which is why cellulosic welding rewards a whip-and-pause technique. Rutile punishes whipping. Travel slow and steady and let the puddle fill ahead of the arc.

The honest downsides

• Poor puddle visibility. Rutile slag mixes into the molten pool, so you cannot clearly see the crater fill. You learn to listen to the arc and use travel speed as feedback instead of your eyes.
• Higher inclusion risk. Rutile slag separates less cleanly than low-hydrogen slag, so if your technique slips, inclusions can be trapped in the bead.
• Shallow penetration. It will not make a root pass on an open-root joint, and it will not reliably fill a deep V-groove in one pass.
• It will not burn through dirt. An E6013 will not reliably burn through rust, mill scale, paint or oil. Clean, bright metal is non-negotiable with this rod.

One housekeeping point for anyone moving up to low-hydrogen later: AWS D1.1 requires low-hydrogen electrodes to be stored and handled so their moisture content stays within limits, and it caps how long they may sit exposed to the atmosphere once the container is opened (see Table 5.1 in the code). Ignore that and a damp 7018 gives you porosity. That is why the E6013, stored in a dry box with no special rules, is such a relief for a first-time welder.

Curious how the other rod families stack up? The all-position welding rod guide walks through where each one belongs on the job.

E6013 vs E6011 vs E7018 vs E7024: Head-to-Head Comparison

Rod choice comes down to a handful of things you can feel at the torch: how the arc behaves, how deep it burns into the metal, what the slag does afterward, and whether your machine can even run it. Here are the same four rods side by side, followed by the reasoning so you can pick with intent instead of guessing.

Attribute	E6013	E6011	E7018	E7024
Coating type	High titania (rutile), potassium	High cellulose, potassium	Low hydrogen / basic with iron powder	Iron powder, titania
Polarity	AC, DC+ or DC−	AC or DC+	AC or DC+	AC or DC+
Penetration	Shallow to medium	Deep, digging	Medium	Medium, hot
Spatter	Minimal	Heavy	Low	Moderate
Slag	Heavy, peels off in sheets	Thin, flaky, breaks up	Dense, self-peeling	Smooth bead, light cleanup
Positions	All position	All position	All position	Flat and horizontal fillet only
Storage	Standard dry storage	Standard dry storage	Rod oven or heated storage once opened	Standard dry storage
Best for	Learning, thin sheet, light fabrication	Dirty or rusty steel, open-root pipe, farm repair, AC-only machines	Structural steel, thick plate, high-carbon and restrained joints	High-deposition flat and horizontal fillet production
Beginner difficulty	Easiest	Moderate to hard	Harder than it looks	Poor learning rod

Why the E6011 is the deep-penetration alternative

The E6011 is a cellulosic potassium rod, and cellulosic coatings produce a fast-freezing weld puddle that barely flows before it sets. That single behavior is why cellulosic electrodes dominate pipe root-pass and vertical-down work: the puddle stays where you put it instead of running ahead of the arc and down the plate. The trade-off is a loud, aggressive arc that digs deep, throws heavy spatter and leaves thin, flaky slag that shatters rather than lifting away in sheets.

For a beginner, that means more cleanup and more heat control. For a fabricator, it means a rod that will drive through rust, paint and mill scale when a clean joint is not available. It is also the only deep-penetration option on an AC-only buzz box, since it runs on either AC or DC+ (the DC-only cellulosic rod, the E6010, is the pipe root-pass specialist and works exclusively on DC+). Lincoln Electric’s breakdown of the AWS electrode classifications is worth keeping open while you shop, because the polarity letter is often the deciding factor.

Why the E7018 is the structural standard

The E7018 is a low-hydrogen iron powder rod rated at 70 ksi tensile. The arc is quiet, the penetration is a sensible medium depth, and the slag is dense enough to peel off almost on its own, a big quality-of-life difference on a long production day. It is the rod specified for structural steel, thick plate, high-carbon steel and heavily restrained joints, because the coating limits diffusible hydrogen and reduces the risk of hydrogen cracking. Code-governed work follows the AWS D1.1 structural welding specification.

Two practical caveats. First, storage: low-hydrogen electrodes need a rod oven or heated storage once the box is opened, because the coating picks up moisture from the air. Second, the numbers run higher than an E6013 of the same diameter. A 1/8 inch E7018 typically runs 90 to 155 amps flat, while a 1/8 inch E6013 typically runs 90 to 130 amps flat. Ranges vary by manufacturer, so the box data sheet always wins.

Why the E7024 is a production rod, not a learning rod

The E7024 uses an iron powder titania coating and deposits metal faster than anything else in this group while leaving a smooth, attractive bead. The problem is the hot, forceful arc, and the fact that AWS A5.1 restricts it to flat and horizontal fillet positions only. It cannot be taken overhead or vertical, and its punch is more than a beginner needs. Save it for a production run of fillet welds on flat plate.

The two rods you may still see on the shelf

The E6012 is the DC-negative titania option, used on straight-polarity machines that cannot switch polarity. It runs hotter and more concentrated than an E6013 with lower deposition. For a broader look at rod families and how to pick by position, the all position welding rod guide covers the common designations in more detail.

Decision guide: situation to rod

• Learning on mild steel, thin or light plate: E6013
• AC-only buzz box where you need penetration: E6011
• Rusty, painted or simply dirty steel, farm and equipment repair: E6011
• Pipe root pass, vertical-down welding: E6011 (or E6010 on DC+)
• DC-only machine, pipe root work: E6010
• Structural steel, thick plate, restrained joints, high-carbon steel, code work: E7018
• Fast flat and horizontal fillet production, appearance matters: E7024
• Straight-polarity DC− machine only: E6012

One last framing point, because the trade-offs above make sense in a wider context: stick welding still wins for a beginner because the gear is cheap, portable and tolerant of shop conditions. The advantages of stick welding walk through that case in detail. And for a like-for-like rundown of these four rods, this rod comparison is a useful second reference.

Picking the Right Diameter and Amps for Your Machine

Get the diameter or the amperage wrong and the easiest welding rod in the world will still make you miserable.

The Diameter Ladder

Diameter	What it is for	Typical flat-position E6013 range
5/64 in (2.0 mm)	Very thin sheet, tiny parts. Melts fast, small bead, least burn-through, hardest to control	About 15 to 30 amps
3/32 in (2.4 mm)	Beginner default and most common size sold. 16 gauge to about 1/8 in plate. Start here	About 40 to 115 amps (varies by maker)
1/8 in (3.2 mm)	General-purpose size, 1/8 to 1/4 in plate. More forgiving puddle, bigger bead, what most fabricators keep on hand	About 70 to 140 amps (varies by maker)
5/32 in (4.0 mm)	Heavier plate and structural work needing more heat and faster deposition	About 90 to 160 amps
3/16 in (4.8 mm) and up	Thick structural territory, heavier equipment	Heavier equipment

Match diameter to thickness, but treat it as a starting point, not a rule. Too thin a rod on thick plate means three passes to fill a groove that should take one. Too thick a rod on thin plate means running 100-plus amps through 18 gauge sheet and watching it warp and blow out.

Published Amperage Ranges and Why the Box Wins

Published amperage for the same rod size varies widely by manufacturer. For 1/8 inch E6013, Lincoln Electric lists 110 to 140 amps, ESAB publishes 120 to 135 amps, and Hobart a very wide 70 to 120 amps. For 3/32 inch E6013 in flat position, that range runs from about 40 amps at the Hobart end to 115 at the Lincoln end.

None of those makers is wrong; they differ on how much heat they want in the puddle for a given diameter. The rule is simple: the data sheet on the rod box, or the chart shipped with your machine, beats any chart on the internet, including the ones on this page.

E7018 sits in a similar band but usually runs cooler per unit of thickness: roughly 40 to 130 amps for 3/32 inch, 75 to 150 amps for 1/8 inch. Low-hydrogen rods need enough amperage to keep the coating stable, and the manufacturer’s chart still wins.

Vertical and Overhead: Drop About 15 Percent

In vertical-up or overhead work gravity pulls the puddle down and you fight it. The widely used rule of thumb is to reduce amperage by roughly 15 percent out of position, which is exactly what Hobart’s published guidance says. Lower amperage means a smaller puddle that freezes faster. If your bead looks like melted ice cream, turn the amps down, not your travel speed.

Polarity and the Open Circuit Voltage Trap

• E6013 works on AC, DC+ and DC-. That is why beginners love it: any modern inverter runs it, and so does an old AC buzz box.
• E6011 works on AC or DC+.
• E6010 is DC only and, according to Lincoln Electric, suitable only for DC power sources. It is a DC+ pipe root rod.
• E7018 is AC or DC+, but see the OCV warning below.

DC+ is reverse polarity, DC- is direct polarity, and the rod box states which the classification needs.

Open circuit voltage (OCV) is what the machine puts out with no arc present, and it drives the most common shop-purchasing mistake with stick welders. Low-hydrogen rods like the E7018 need a hot start and high OCV to break the coating down cleanly, so a cheap AC buzz box with low OCV often cannot strike one: the arc sputters or the rod glazes over. Lincoln publishes a small-AC-machine E6013 product for low open circuit voltage machines, and it exists because the E6013 is the rod that starts on nearly anything.

No Amp Markings on Your Machine? Do This

Old buzz boxes and some budget units have a dial with no numbers. Start mid-range for your rod diameter, then:

1. Strike the arc and listen. A healthy arc on a 3/32 inch E6013 is a steady, smooth hiss. Crackling and popping means too much amperage; a buzzy tone means too little or a dirty workpiece.
2. Watch the arc length. If it stretches and grows as you hold it, you are starving it: add amperage. If it is short, tight and spitting spatter, back off 10 amps.
3. Adjust in 5 to 10 amp steps and re-test on scrap.

Two rules cover most cases: no spatter and an arc length that does not grow on its own. A stable arc sits about 1/8 inch above the work and stays there.

A digital display gives far more than a number: hot start, arc force and inductance. Arc force alone can make a 3/32 inch E6013 behave like a far more expensive rod.

Keep your work in the flat position whenever you can. Learning on flat plate lets you focus on amperage and travel speed without gravity, and it builds the muscle memory that makes vertical and overhead work less painful. For real-world setup choices, this beginner electrode selection and amperage guide covers the same calls, and OSHA’s welding safety fact sheet is worth reading first.

What the Easiest Rod Can’t Do: Limits, Weaknesses and Bad Work

Here is the honest counterweight to everything above. The E6013 is the most beginner-friendly electrode sold, and the wrong tool for a surprising number of jobs people try anyway. Nothing about it is defective. It makes trade-offs, and those trade-offs show up only when a part fails, an inspector rejects a weld, or a project gets scrapped.

Shallow penetration: the gap that matters

E6013 penetration is described as shallow to medium, a deliberate choice of the rutile coating. It is fine for fillet welds on plate, T-joints and edge joints. It is not fine for jobs needing a root pass with keyhole penetration, where the arc burns into the joint and forms a keyhole shape that fills the gap from the bottom up. On open-root pipe, a square butt, or a deep V-groove you want to fill in one pass, the E6013 leaves you short.

You can still use it. Add a filler bar, run two passes, or accept a lower-strength joint. Before you commit to a supplier, read an all position welding rod comparison.

Structural steel is the harder limit. D1.1 does not let you qualify E6013 for demanding work because the code requires low-hydrogen processes for harder material groups. ASTM A36 up to 3/4 inch thick is Group I and may be welded with non-low-hydrogen processes; ASTM A572 Grade 50 is Group II and must use low-hydrogen processes. E7018 is specified there because it resists hydrogen-induced cracking in restrained joints, a failure mode that shows up weeks later, not the day you weld. That is why low-hydrogen electrodes carry a moisture limit, a baking requirement and a storage oven, and why an E7013 is not simply a cheaper E7018. AISC’s welding engineering FAQ explains the grouping logic.

There is a second, quieter cost. Fillet bend test failures show up more often with rutile electrodes than with E7018, because the shallower fusion leaves less sound metal at the toe and root of the joint and rutile weld metal carries lower notch toughness. Rod comparisons such as this welding rods comparison cover it in general terms. The real version is a repair that fails a bend test and has to be ground out and redone, and air arc gouging is the standard way to remove that bead.

Dirt: the E6013 will not burn through it

This is the biggest practical trap for beginners. Cellulosic electrodes like E6010 and E6011 burn through rust, mill scale, paint and grime because the coating creates a reducing atmosphere around the arc. The E6013 will not do that reliably. Weld dirty steel with one and you get porosity from oil and moisture, oxides that refuse to fuse, and a bead that looks fine on top and is weak underneath.

The rule is simple: grind or wire-wheel the joint back to bright metal before you strike. Every minute of grinding is faster than redoing a bad weld.

Slag inclusions: the rutile trade

Rutile coatings carry more risk of slag inclusions than cellulosic or low-hydrogen types, because the slag is less fluid and separates less cleanly from the puddle. Slag gets dragged in when amperage is too low, rod angle is wrong, travel speed is too slow, or the arc length stretches too long. The tell is a rough, pitted bead or a visible line of dark flux along it.

You cannot see the puddle

Poor puddle visibility is the most common complaint from experienced welders using E6013 on sheet metal, and it comes from the rutile coating mixing slag into the molten pool. You cannot watch the puddle grow as you fill the joint, so you learn to listen. A healthy E6013 arc has a steady, dense crackle. A long, thin, hissing arc sounds wrong, and gurgling or spitting means the arc is too long or the amperage too high. If the bead sags and slag runs ahead of the arc, you are moving too slowly.

Distortion and burn-through on thin sheet

Rutile electrodes run hot for their penetration, and on 16 gauge or lighter steel that means blow-through and warping. Control it with heat input, not nerve: keep amperage near the low end of the range, step up travel speed, use a backing strip, space tacks further apart, and drop to a 5/64 inch electrode on very thin material. 3/32 inch is the beginner default but already the upper limit for light sheet.

When You Should Skip the Easiest Rod: E6011, E7018 and Other Processes

There is a point in every welder’s early months where the E6013 stops being enough. Not because the rod is bad, but because the job outgrew it. A rusted trailer hinge, a code-controlled structural bracket, a production run of fillet welds that has to get done before lunch. Each of those wants a different consumable, and the mistake most beginners make is staying loyal to the rod that worked on their first bead.

Knowing when to switch is the difference between a hobbyist and someone who can be handed a job and a drawing. Here is where the easy rod falls short, and what to reach for instead.

Reach for E6011 when the metal is dirty

The E6011’s cellulosic coating burns hot and digs deep, and that digging arc is the entire point. It will cut through light rust, scale and even a bit of paint that would defeat an E6013. It also produces a fast-freezing puddle, which is exactly what you want on vertical-down work or on an open-root joint where molten metal would otherwise run ahead of the arc and burn through. If you are doing pipe, structural tube, or farm repair on equipment that has been sitting outside for ten years, this is your rod.

It is also the only deep-penetration option that works on a cheap AC buzz box, since it runs on AC or DC positive but not DC negative. As Weldguru’s rod comparison shows, the trade-off is a rougher bead, heavy spatter, thin flaky slag, and a steeper learning curve than the E6013.

Reach for E7018 when the code or the restraint says so

The E7018 is the low-hydrogen workhorse. Its coating resists moisture, which matters because hydrogen trapped in a weld can crack a highly restrained or high-carbon joint. That makes it the default for structural steel, thick plate, and anything governed by a building code or a pressure vessel rule.

Two practical notes make E7018 frustrating for beginners. First, its iron powder content means the coating needs more heat to melt than a 3/32-inch E6013 at the same diameter, so a rod that feels sluggish on a thin machine is behaving normally, not badly. Second, storage is not optional. AWS D1.1 Sections 7.3.1.4 and 7.3.1.5 require consumables removed from their original package to be protected and stored so their welding properties are not affected, and electrodes to be dry and in suitable condition for use. Common practice is to hold low-hydrogen rods in a heated oven at 250 to 300 degrees F. Leave the box open in a humid shop and rods can pick up enough moisture within hours to cause porosity.

Reach for E7024 when speed beats versatility

E7024 deposits metal faster than any other common stick rod and lays down a smooth, attractive bead. The catch is position: it is rated for flat and horizontal fillet work only. In a production shop running long fillets all day, that limitation stops mattering and the deposition rate starts paying for itself. For a beginner learning vertical and overhead, it is the wrong tool entirely.

Sometimes the answer is not a stick welding rod at all

Here is the honest part. For a lot of beginners, the easiest welding process is not SMAW. Flux-cored wire running through a MIG gun removes electrode handling entirely, and aMIG gun gives you a much tighter control window on thin material than a rod ever will. TIG offers the finest control of any process and is also the hardest to learn, plus it needs shielding gas.

That is why our own guide to all-position stick welding rods frames stick as the training ground rather than the destination. A sensible progression looks like this:

1. E6013 to learn arc length, travel speed and rod angle on flat steel.
2. E7018 once you start real structural work or code-governed fabrication.
3. E6011 for rusty repairs, pipe and open-root joints.
4. Flux-cored wire or MIG when production speed matters more than all-position versatility.

For work on aluminum, the consumable and process story changes completely, so it is worth reading a dedicated primer on aluminum MIG welding and on aluminum flux core welding before touching that metal with a steel rod.

Setup and Technique: Your First Ten Beads with an E6013

A forgiving rod still needs good setup. Twenty minutes of prep and fit-up decide whether that stable arc becomes a bead you would sign your name to.

Machine and PPE First

Sort out the helmet first, because you cannot borrow one halfway through a bead. At the 100 to 130 amps you will run a 3/32-inch E6013, the recommended filter shade sits around 8 to 10, so use an auto-darkening helmet and set the shade from the chart on the side of the shell. A darker shade protects your eyes better but makes the puddle harder to see, and the puddle is what a beginner needs to see.

• Auto-darkening helmet, shade set for your amperage
• Safety glasses worn under the helmet, always
• Gauntlet-style leather welding gloves
• Leather apron or jacket
• Flame-resistant shirt and pants, no synthetics
• Sturdy boots with steel toes
• Electrode holder, ground clamp, chipping hammer, wire brush, pliers

Ventilation is what people skip, and it causes lasting damage. Coated electrodes make fume, and that fume carries metal oxides into your lungs. The OSHA welding fact sheet states that chromium is converted to hexavalent during welding and that Cr(VI) fume is highly toxic, damaging the eyes, skin, nose, throat and lungs. One clarification: chromium fume in stainless work comes from the base metal and chromium-bearing consumables, not the stick process itself, and a carbon steel E6013 contains no chromium at all. That is not a licence to breathe the fume.

Set the Machine, Then Prep the Metal

Set the amperage in the middle of the range printed on the box. A formula taught in many courses is I = (20 + 6d) × d with d in millimetres, landing near 125 amps for a 3.2 mm electrode, a starting point you trim from. Published ranges differ between makers, so the box data sheet wins, and the amperage chart reference is a good cross-check. Before you go vertical or overhead, remember what Hobart and other electrode manufacturers advise: drop the optimum amperage by about 15 percent for out-of-position work.

Now clean the metal. Grind or wire-wheel the joint back to bright steel and remove every trace of mill scale, paint, oil and rust. An E6013 will not burn through dirt, and dirt turns into slag inclusions and porosity right where it matters. For your first beads, tack a scrap strip along the back of the joint as a backing bar so the heat has somewhere to go other than through the plate.

The Strike, Then the Arc

Hold the electrode at roughly 70 to 80 degrees to the work with a slight drag angle, the way you would strike a match. Touch it to the joint, then sweep it along the joint to break the arc without stabbing the pool. The moment the arc lights, lift to about 1/8 inch of arc length. In your first hour, judge that distance by ear and feel, not by eye. A correct arc has a quiet, steady crackle and a faint hiss. Too long and you will hear a hollow spitting hiss and watch the puddle wander. Too short and the electrode stutters and sticks.

Running the Bead

Move at a constant speed. Beginners drift fast at the start and stall at the end, giving a bead that tapers and pinches. Pause very slightly at the end of the bead to let the crater fill, and let the puddle fill ahead of the arc rather than chasing it with the rod. If you are pushing the puddle around, you are travelling too fast or standing too close.

The Progression

1. Flat beads on scrap plate of the same thickness as your real project
2. A lap joint, one side only, with no need to be pretty yet
3. A butt joint with a filler bar, which teaches fit-up and gap control
4. Vertical-up on the same joint
5. Overhead last, once flat beads are boring and automatic

Clamp the parts and leave a gap you can see light through, roughly half the rod thickness, and never force a misaligned joint. For a reference on how different rods behave out of position, the all-position welding rod guide is worth a read before you go overhead. Stick remains the easiest process to start with because the gear is cheap and portable, as this overview of stick welding advantages explains.

Cut It Off and Look

When the bead is done, let it cool, chip the slag off, and cut the bead flush with a grinder or cold chisel. Then look at it in good light. You are checking for even width, consistent reinforcement, tight ripples, clean edges and no undercut. That cross-section is the fastest feedback loop in welding, and it teaches you more in ten minutes than an hour of welding bad beads blind.

Common Beginner Mistakes and How to Fix Them Fast

Nearly every disappointing first bead traces back to one of a short list of causes, and the good news is that most of them announce themselves. Spatter, undercut, a bead that looks fine but snaps at the root. Each has a signature, and once you learn to read the signature you can stop guessing and start fixing.

Stick welding is a forgiving place to learn because it runs slow enough for you to react. The advantages of stick welding come down to exactly that. Here is the symptom-by-symptom catalogue.

Excessive spatter

Orange popping sparks flying off the puddle is almost always one of two things: too many amps for the rod diameter, or an arc held too long. Drop the current about 10 amps, shorten the arc to roughly 1/8 inch, then run the same bead again. Published ranges differ between manufacturers, so start from the range printed on your rod box rather than a number you half remember.

The arc will not strike

If the electrode just buzzes on the plate without lighting, check four things in order: the work is clean and rust-free at the strike point, the electrode is dry, the polarity suits the rod, and the machine is actually on. A swipe of a wire wheel over the strike area solves most cases. An E6013 runs on AC, DC+ or DC-, so polarity rarely causes this on a beginner rod, but a cellulosic E6010 needs DC+ and reversed leads will refuse to strike cleanly. Damp, cold electrodes also strike poorly, which is why the all position welding rod guide recommends keeping stock in a rod can or a warm drawer between jobs.

The electrode sticks to the work

A frozen electrode buried in a puddle means too much current, too long an arc, or a stationary rod. Let the arc gap stretch slightly instead of holding a fixed length, keep a drag angle, and keep moving. If it freezes again, break it, chip the slag, and restart just off the old puddle.

Porosity in the bead

Pinholes and gas pockets have four usual suspects: moisture on the rod, dirty or oily steel, a wind draft across the joint, and an arc so long it draws air into the weld. Clean to bright steel, dry the rods, screen the work, and tighten the arc. Moisture is also why low-hydrogen rods live in a heated oven after opening. AWS D1.1/D1.1M:2025 sets allowable atmospheric exposure limits for low-hydrogen electrodes in Section 5, with minimum holding times and alternate stress-relief provisions in Table 5.2 and beyond.

Undercut

A groove melted along the toe of the bead where the arc wandered into the base metal. Reduce amperage, slow your travel speed, and hold a slightly longer arc so the puddle fills ahead of the arc instead of digging at the edge.

Slag inclusions and slag stuck over the bead

Lumps of slag rolled into the bead point to slow travel, low amperage, or the wrong rod angle. Sweep the slag ahead of the arc, keep the arc tight, and use a push angle on that stretch so slag is swept rather than rolled back into the puddle. If slag ends up stuck over a finished bead, leave it in place and chip it off while it is still hot. Never grind slag into the weld and never weld over it.

The bead looks fine but is weak

Appearance is not proof of strength. A bead that passes the eye test but breaks at the root usually means poor fusion or dirty base metal. Grind back to bright metal and increase heat input appropriately. On code-governed work, looks mean nothing: AWS D1.1/D1.1M:2025, the 25th edition of the Structural Welding Code approved as an American National Standard in March 2025, requires qualified procedures and qualified welders, not a good-looking bead.

The wandering arc

A snake-like bead is usually your body, not the rod: an uneven grip, an inconsistent rod angle, or no support for your elbows so your arms drift. Set the machine on a stable bench at a height that lets you rest your forearm on the work, then fix one angle and hold it. A drag angle of roughly 70 to 80 degrees to the plate keeps the arc pointed where you are looking.

Blow-through on thin sheet

A hole straight through the plate means too much heat for the thickness. Lower the amps, step down to a smaller rod diameter such as 5/64 inch on very light gauge, add a backing bar behind the joint, and speed up your travel so the puddle does not sit in one spot.

What a good bead should look like

• Even width along its length, with no pinching at the ends
• Consistent height and a slightly convex profile
• Tight, regular ripples instead of wide, flat, frozen sections
• Clean toe and cap edges, no undercut and no overlap
• Slag that lifts away in sheets while it is still warm

Do not judge the arc by eye while you are making it. Judge it by sound, then by the finished bead after the slag comes off. When a bead goes wrong, run it again on the same plate in the same position until you get one you like, then move on to the next joint.

Safety, Rod Storage and Your First Project Plan

Three things decide whether your first afternoon at the bench goes well: whether you breathe safe air, whether the electrodes stay dry, and whether you practise on scrap before touching the real part. Get those right and everything else is a skill curve you can climb.

The fume you cannot see is the real hazard

Stuck welding fume is the deadliest hazard in the shop, and the danger is the part you do not notice. OSHA’s welding safety fact sheet is clear that the primary risk is inhaling metal fume particles, especially in poorly ventilated spaces and on stainless or chrome-bearing work.

Hexavalent chromium is the compound regulators worry about most. A 2006 Federal Register final rule on occupational exposure to hexavalent chromium cut the permissible exposure limit from 1 milligram per 10 cubic meters (equivalent to 52 micrograms per cubic meter as Cr(VI)) down to 5 micrograms per cubic meter. OSHA now enforces separate standards for general industry (29 CFR 1910.1026), shipyards (1915.1026) and construction (1926.1126).

For a beginner, the practical translation is simple: weld with the roll-up door open and a fan pulling air across the work, or use a fume extraction arm. A respirator is the backup when ventilation is not possible, not the first line of defense. More detail on PPE for coated electrodes is in our guide to alloy steel welding electrodes: selection, use and safety.

Protect your eyes, lungs and skin

Your helmet shade must match the amperage, not your eyesight. For stick welding the usual ladder is shade 8 at roughly 20 amps and below, shade 10 around 60 to 120 amps, and shade 12 above 150 amps. Check your helmet manufacturer’s chart for exact numbers, or use an auto-darkening helmet and let the electronics remove the guesswork.

Under the helmet, wear safety glasses. On your hands, leather gloves that are dry and intact. On your body, a leather apron or jacket over flame-resistant clothing, sleeves down, and sturdy boots. If you grind or wire-wheel the joint first, add a face shield and respiratory protection, because that dust is far worse than the arc fume. Sparks and slag will find bare skin and ruined shoes without trying hard.

Fire watch, hot work and cylinders

Every bead throws hot spatter, and spatter burns through clothing and starts fires in rags, sawdust and dry grass. Clear combustibles at least 35 feet from the work, keep an ABC dry chemical extinguisher within reach, and treat any hot work near a building or vehicle as needing a fire watch and a permit where your employer requires one.

Gas cylinder basics are unglamorous and non-negotiable: chain or strap them upright, keep the cap on when they are not in use, store them clear of heat and sparks, and never roll one on its side. Ventilate any cylinder storage area. If you are welding on or near a pressurized vessel, remove and purge the cylinder first.

Check your electrode holder monthly. A worn jaw or a nicked cable is both a shock hazard and the cause of half of all arc-strike problems.

Store the rods like they are food

Electrodes are hygroscopic. They absorb moisture from the air, and a damp coating boils at the arc, spits, pits and welds badly.

For your E6013, standard dry storage is enough. Keep the rods in their original tube or a sealed plastic rod bin, off the concrete floor where dampness wicks up, away from a leaking roof, and inside the heated envelope of the shop. Use them in order, oldest first, because the coating ages even when sealed.

Low-hydrogen electrodes are a different story. AWS A5.1 classifies them separately precisely because their moisture content is a controlled property tied to storage and handling. Once you open a box of E7018, the rods belong in a heated rod oven, typically held at 250 to 300 degrees Fahrenheit, and they must be used within a set period or returned to the oven.

E6013 requires no rod oven at all, which is one more reason it is the right rod to learn on. Discard any electrode that looks damp, crumbling, powdery or has a pitted coating.

Your first project plan

Keep it small and mild. A simple bracket, a replacement workbench leg, or a trailer hitch repair in 1/8 inch plate. The rule of thumb: 1/8 inch plate, 3/32 inch E6013, flat position, with a backup bar behind the joint for the first few passes.

Practise on scrap of the same thickness first. Then, before the arc ever lights, cut and fit the metal. Sharp corners, square ends, correct hole placement and a gap that stays put decide whether the weld succeeds more than the rod ever will. A misfit joint exposes you to burn-through, slag traps and poor penetration no matter what you feed it.

When to move up

Use this ladder as your own checklist:

1. Consistent flat beads on scrap of the same thickness as the real job, with clean slag and even width.
2. Add vertical and overhead, where the puddle wants to run and gravity takes over.
3. Try E7018 for structural work. The AWS D1 Committee on Structural Welding maintains the Structural Welding Code governing welded structures made from commonly used carbon and low-alloy constructional steels, and that is where low-hydrogen rods belong.
4. Add E6011 for rusty repairs, farm equipment and pipe work where penetration has to come through dirt.
5. Then compare processes. Our breakdown of why SMAW still wins and the all-position welding rod guide will help you decide whether to add MIG or flux core next.

The short version

The easiest welding rod to use is still the 3/32 inch E6013 for a beginner on mild steel, and that answer has not changed since the first section of this guide. But the rod is the least important variable in a good weld. Clean metal, correct amperage and steady movement matter far more, and no label on any box can fix a dirty joint or a wandering arc. Get the fume out of the air, keep the electrodes dry, practise on scrap, and the beads will come.

Frequently Asked Questions

What is the easiest welding rod to use for a beginner?

The 3/32-inch E6013 is the easiest stick welding rod for most beginners working on clean mild steel. Its rutile coating gives a stable, quiet arc that strikes and restarts easily, tolerates a wandering arc length, produces little spatter, and sheds its slag in easy-to-remove sheets. It also runs on AC or DC of either polarity, so almost any machine can use it.

Is E6013 or E7018 easier to weld?

E6013 is noticeably easier. The E7018 is a low-hydrogen electrode whose coating resists arc restarts and needs dry storage, so it demands more consistent technique and more attention to rod handling. E7018 is the right choice for structural and code-governed work, but it is a step up in difficulty rather than a starting rod.

Can I use an E6013 on rusty or painted steel?

Not reliably. Cellulosic rods such as E6010 and E6011 are the ones designed to burn through surface contamination. An E6013 needs reasonably clean steel; grinding or shot-blasting the joint back to bright metal is the safer path, because welding over rust, paint or oil traps moisture and hydrocarbons in the bead and causes porosity.

Why is my E6013 weld so spattery?

The two usual causes are too much amperage and too long an arc. Shorten the arc to roughly 1/8 inch and drop the amperage by about 10 amps from where you started, then re-evaluate. Some spatter is normal with rutile coatings, so do not over-correct the settings and cold-start your machine.

What size electrode should I buy as a beginner?

Start with 3/32-inch (2.4 mm) E6013. It covers the common range of home and hobby work, is the most widely stocked size, and its published amperage range fits most entry-level machines. Move to 1/8-inch for heavier plate and to 5/64-inch when working very thin material.

Does the E6013 make strong enough welds for structural work?

No. E6013 has shallower penetration and is not specified for structural steel governed by AWS D1.1, and it can fail bend-test qualification more often than E7018. For load-bearing or code-governed joints, use E7018 with a qualified procedure and appropriate electrode storage.

Is MIG or stick welding easier for a first-timer?

For many beginners MIG is easier, because a continuous wire feed removes electrode handling, arc striking and slag chipping entirely. Stick welding is the better choice if you want the cheapest gear, need to weld outdoors or in the wind, or want to work on dirty and rusty metal without investing in a gas machine.

How should I store welding rods after opening the box?

Keep E6013 in a dry, sealed container, and keep it off a damp floor or out of an open shop where humid air reaches it. Low-hydrogen E7018 needs more than that: it should be kept in a heated rod oven, typically around 250 to 300 degrees F, because moisture pickup can cause porosity within hours.

Can I weld aluminum or stainless with the same E6013?

No. E6013 is a carbon steel electrode and will not correctly weld aluminum or stainless. Aluminum needs an aluminum-alloy electrode and often a special technique, and stainless needs an austenitic stainless electrode. Always match the filler metal to the base metal and confirm the rod classification is approved for that material.

Is stick welding safe for a hobbyist working in a home garage?

It can be, with the right setup. Use a properly rated welding helmet with the correct filter shade, safety glasses underneath, leather gloves and a leather apron, and provide local exhaust or fume extraction to keep fumes out of your breathing zone. Never weld in a closed space, keep a fire extinguisher nearby, and be aware that coated electrodes produce fume containing metal oxides.