Tweco VTS30 Velocity Light Duty MIG Welding Contact Tip, 0.030" Wire Size, Standard (Pack of 10)
$25.40
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$25.40
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If your MIG contact tip keeps burning back, the problem is usually not just the tip. Burnback happens when the wire stops feeding normally while the arc stays on the wire end. The wire then melts back into the tip and can fuse to it.
This guide covers the common causes that get missed after a tip replacement: wrong tip size, liner drag, spool brake setting, worn drive rolls, and stickout issues.
In MIG welding, burnback means the wire burns back into the contact tip instead of feeding out at the normal rate. You may see the wire fused to the tip, a cratered wire end, or a tip that overheats quickly after starting the arc.
The tip bore has to match the wire size closely enough for stable electrical contact, but not so tight that it creates drag. A tip that is too small for the wire can increase friction and heat. A worn or damaged tip can also cause erratic contact and feeding problems.
Verify the wire diameter and the tip marking before replacing more parts. If the wire size and tip size do not match, correct that first.
A liner that has contamination, sharp bends, wear, or the wrong length can make the wire feed unevenly. When wire speed drops even briefly, burnback can happen fast.
Inspect the liner path for:
If the wire feed feels rough when you jog it, suspect liner drag before blaming the tip.
Worn, mismatched, or improperly tensioned drive rolls can slip or flatten the wire. That creates inconsistent feed speed and can lead to burnback at the tip.
Inspect the drive rolls for:
If the wire feed is unstable at the feeder, fix the drive roll setup before changing the tip again.
On spool-fed systems, brake tension that is too tight can overload the drive system. Brake tension that is too loose can let the spool overrun and create feed inconsistency. Either condition can contribute to burnback.
Verify that the spool turns smoothly and stops without freewheeling. If you hear the feeder laboring or see wire birdnesting risk, the spool brake may need adjustment. Exact brake settings are machine-specific and Unknown (Verify).
Stickout is the distance from the contact tip to the work before the arc starts. Too much stickout changes electrical behavior and can make the wire heat up differently. That can increase burnback risk, especially on thin wire or with marginal feed.
Keep stickout within the procedure used for the job. If the operator has been holding the gun too far from the work, shorten it and test again.
Steep angles, excessive arc length, or poor gun positioning can make the wire stick or burn back more easily. A stable push angle and consistent travel help keep the arc and wire feed predictable.
If burnback happens only with one operator, review technique before replacing parts.
Burnback can also happen when the arc is too hot for the wire feed speed, or when the wire feed is too slow for the voltage and current being used. If the arc stays on too long after the trigger is released, postflow and wire retraction behavior may also matter. Machine settings are Unknown (Verify) without the unit model.
If the machine is set for a small wire but the feed path is restricted, the result can look like a tip problem even when it is a system problem.
Replace the contact tip if it is visibly enlarged, burned, fused, or no longer feeds wire smoothly. If tips keep failing right after replacement, stop changing tips and find the feed restriction first.
For a replacement tip option in 0.030″ wire size, see the following ArcWeld product:
TWECO velocity light duty air cooled contact tips are designed for use with light duty velocity nozzles. All of the features of velocity result in more convenience and higher productivity for the Welder.
View at Arc Weld StoreVerify wire size, gun compatibility, and nozzle family before ordering. Compatibility details beyond the provided product data are Unknown (Verify).
Usually because the underlying feed issue was not fixed. Check tip size, liner drag, drive rolls, spool brake, and stickout.
Yes. A tip that is too small, worn, or damaged can increase drag and heat, which can contribute to burnback.
Yes. Slipping or worn drive rolls can slow wire feed enough to cause burnback.
No. Heat is part of it, but unstable wire feed is a common root cause.
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If your PAPR helmet airflow feels weak, start with the basic flow path: intake, pre-filter, main filter, blower, hose, battery, and helmet seals. Low airflow is usually caused by restriction, a failing power source, or a leak in the air delivery path.
A loaded pre-filter can restrict airflow before the blower can compensate. Remove the pre-filter and inspect it for dust buildup, discoloration, or collapse. If it is loaded, replace it.
Also inspect the main filter element. If the system still feels weak after a fresh pre-filter, the main filter may be restricted. Use the manufacturer’s replacement schedule and alarm guidance.
Low battery output can reduce blower speed. Charge the battery fully, then retest the system. If the airflow improves after charging, the battery may be nearing end of service life. Battery health details are Unknown (Verify) without the system manual.
Run your hand along the hose and check for:
A hose leak or restriction can make the helmet feel underfed even if the blower is running normally.
Power the unit on and listen for the blower. A healthy blower should run consistently. If it sounds weak, surges, rattles, or changes pitch under load, there may be a motor, bearing, or electrical issue. Exact service limits are Unknown (Verify) without the OEM documentation.
Make sure the helmet inlet, internal air channel, and face seal area are clean and properly installed. A mis-seated component can block or divert airflow. Remove dust or spatter buildup that could interfere with delivery.
If the low-flow alarm is active, do not ignore it. The alarm can be triggered by filter loading, airflow restriction, battery issues, or blower faults. If the alarm continues after basic checks, take the unit out of service until the fault is found.
If the pre-filter is visibly loaded, replace it before moving on to deeper troubleshooting. For the ESAB Savage A40 PAPR system, use the replacement pre-filter below.
Enhance your protection while welding with the ESAB 0700002404 Savage A40 PAPR Pre-Filter. This essential pre-filter acts as a replacement part for the esteemed ESAB Savage A40 Powered Air Purifying Respirator (PAPR) system, ensuring that you maintain optimal air quality while you work in hazardous environments. Designed for professionals, this pack of 5 PAPR pre-filter replacements provides a reliable solution fo…
View at Arc Weld StoreProduct note: ESAB Savage A40 PAPR Pre-Filter Replacement, NIOSH Approved, Pack of 5 Filters. Compatibility is limited to the listed ESAB Savage A40 PAPR pre-filter replacement application. Verify fitment against your system manual before purchase or installation.
Most often, the cause is filter loading, a battery that cannot maintain output, or a hose restriction or leak.
Yes. A loaded pre-filter is one of the most common causes of weak airflow and low-flow alarms.
Replace or inspect the filter first if it is visibly loaded. If the filter is clean, check the battery and blower performance next.
Inspect the hose, battery, blower, and helmet air path. If the issue remains, the fault may be in the blower assembly or another component. Unknown (Verify) without OEM diagnostics.
Category: PAPR Helmet Support
$94.39
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If weld quality drops, do not start by replacing parts. Most issues come from process settings, consumables, shielding gas, ground connection, wire feed, or operator technique. Use this weld quality troubleshooting guide to isolate the cause before you spend time and money on parts.
Many weld defects are process related, not part failures. Verify the following before opening the gun or feeder.
Shielding gas problems can look like bad consumables or a failing gun. Verify gas setup before replacing parts.
Wire feed instability can create arc fluctuation, burnback, and inconsistent bead shape.
Before replacing a control wire assembly or gun component, inspect the basic wear items first.
Weld quality problems often start at the joint.
Replace parts only after the problem follows the component or shows clear wear. For MIG gun control and feed-related issues, the Tweco MSAK-354 Control Wire Assembly for MIG Guns may be a relevant replacement option when the original assembly is damaged or no longer performing as expected. Use the part only if it matches the existing setup. Compatibility is Unknown (Verify).
Introducing the MSAK-354 Control Wire Assembly, a premium component designed to enhance your MIG welding experience. This high-quality control wire assembly is manufactured by Tweco, a reputable name in the welding industry. Precision-engineered, the MSAK-354 provides reliable performance and durability that meets the demands of both professional welders and DIY enthusiasts. The MSAK-354 is essential for ensuring…
View at Arc Weld StoreDo not assume the control wire assembly is the cause of poor weld quality until you have checked process settings, gas coverage, wire feed, and consumables.
Why does the weld look bad if the machine seems fine?
Weld appearance can be affected by shielding gas, contamination, wire feed instability, joint prep, or technique. A machine can operate normally while the process is still out of control.
Should I replace the gun first?
No. Check the consumables, wire path, work clamp, gas delivery, and settings first. Replace the gun or its components only after you isolate the fault.
Can a bad ground cause porosity?
Yes. A poor work connection can contribute to unstable arc behavior and poor bead quality.
What is the fastest way to narrow it down?
Make one change at a time and run a short test weld. That is the most reliable way to separate process issues from hardware issues.
$105.98 – 1/8" – 10 LBS.
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Porosity in stick welding shows up as gas pockets in the weld metal. The usual causes are moisture, contamination, poor technique, or unstable shielding from the electrode. Use this checklist to isolate the cause before you change settings or replace parts.
If porosity keeps returning after cleaning and technique corrections, check whether the electrode matches the job. This draft includes one available product option from Weld Support Parts:
Product: Washington Alloy 308L Welding Electrode 10 LB Stick Package – High Quality Stainless Steel Welding
Use case: Stainless steel welding applications only as described by the product listing. Other compatibility details are Unknown (Verify).
Shopify handle: 308l-welding-electrode-10lb
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Elevate your welding projects with the Washington Alloy 308L-16 10lbs Welding Stick Electrode. Designed for stainless steel applications, this high-quality electrode ensures superior arc stability and a clean finish for every weld. Whether you're a professional welder or a DIY enthusiast, this product is a must-have in your welding toolkit. The 308L welding electrode is known for its excellent low carbon content,…
View at Arc Weld StoreNote: Confirm base material, procedure, polarity, and storage requirements before use.
It usually appears as small holes, pinholes, or worm-like voids in the weld bead or after grinding.
Yes. Moisture in the electrode, base metal, or surrounding environment is a common cause.
Not first. Check contamination, electrode condition, arc length, and ground quality before changing amperage.
Yes. A long arc increases exposure to air and can make porosity worse.
Start with electrode dryness, joint cleanliness, and arc length.
If porosity continues after these checks, stop and verify the procedure, consumable condition, and machine setup before production welding.
$105.98 – 1/8" – 10 LBS.
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Stick weld undercut is a groove melted into the base metal along the weld toe that is not filled back in with weld metal. It usually points to heat control, travel technique, or arc length problems. In some cases, electrode selection and joint prep also contribute.
The most common stick weld undercut causes are a combination of heat input and bead placement. Start with these checks:
If the bead is cutting grooves into the base metal, slow the travel enough for the puddle to wet into both toes. Do not stop long enough to create excess reinforcement or slag traps.
If the arc is digging in or the toes are washing out, reduce amperage a small amount and test again. Make one adjustment at a time so you can see the effect.
Maintain a tight arc for better puddle control. A long arc can increase heat spread and reduce edge fill.
Keep the rod centered on the joint with a consistent work angle. On fillets, uneven angle can underfill one toe and overheat the other.
Use a small weave or slight pause at the toes only if the procedure and electrode type allow it. Over-manipulation can trap slag or create an uneven bead.
Clean the joint area to bright metal where possible. Contamination can make the arc unstable and increase the chance of undercut.
If technique checks do not solve the problem, verify whether the electrode matches the job requirements. For stainless applications, the Washington Alloy 308L Welding Electrode 10 LB Stick Package may be used for stainless steel work. Product-specific procedure, polarity, and base-metal match are Unknown (Verify) and should be checked before use.
Elevate your welding projects with the Washington Alloy 308L-16 10lbs Welding Stick Electrode. Designed for stainless steel applications, this high-quality electrode ensures superior arc stability and a clean finish for every weld. Whether you're a professional welder or a DIY enthusiast, this product is a must-have in your welding toolkit. The 308L welding electrode is known for its excellent low carbon content,…
View at Arc Weld StoreNo. High amperage is a common cause, but travel speed, arc length, and electrode angle can also create undercut.
Usually not by itself. Too slow can create excess heat input and a wider bead, but undercut is more commonly tied to heat concentration, arc length, or technique errors.
Yes. Different electrodes behave differently in arc force, puddle control, and slag behavior. Verify the electrode matches the material, position, and procedure.
Start with arc length and travel speed. Those are the fastest technique variables to correct without changing the whole setup.
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A beveled edge on a plasma cut usually means the arc is not centered through the kerf. The most common causes are torch angle, travel speed, worn consumables, incorrect standoff, and poor air quality. Start with the cut setup, then inspect parts, then check the air system.
Hold the torch square to the plate. Even a small tilt can create a bevel on one side of the cut. If the torch is hand-held, watch for side lean during the full cut path, especially on long cuts and corners.
Travel speed affects kerf shape. If you move too fast, the arc trails and the cut leans. If you move too slow, the arc can wash out the lower edge and increase dross. Make one change at a time and test on scrap.
Worn or damaged consumables can make the arc unstable. Check the electrode, nozzle, and shield for erosion, pitting, heat damage, or clogging. If the shield is damaged or worn, replace it before continuing. The Hypertherm 220674 Plasma Cutting Shield is one available part for compatible T45v hand cutting setups; exact compatibility beyond the listed product title is Unknown (Verify).
If standoff is too high, the arc can spread and lose cut squareness. If the torch is dragging when it should not, the shield or tip condition may be affecting arc control. Follow the machine or torch manual for the correct stand-off method.
Moisture, oil, and debris in the air line can cause rough cuts and edge angle changes. Drain the compressor tank, inspect filters, and confirm the air supply is clean and dry. Air pressure and flow requirements are torch-specific and Unknown (Verify) without the machine manual.
Hypertherm 220674 Plasma Cutting Shield – T45v Hand Cutting Shield, 1 Pack
This shield may be used when the existing shield is worn or damaged. Use only if it matches the torch setup and manual requirements. Compatibility details beyond the product title are Unknown (Verify).
Introducing the Hypertherm 220674 Hand Cutting Shield, your essential companion for plasma cutting tasks. This high-quality plasma cutting shield is designed to protect both your workspace and yourself. Made by Hypertherm, a trusted name in plasma cutting technology, this product ensures superior performance and durability. The Hypertherm Hand Cutting Shield is perfect for both professionals and DIY enthusiasts. I…
View at Arc Weld StoreIt usually happens when the arc is not centered through the cut path. Torch angle, travel speed, consumable wear, and air quality are the main checks.
Yes. Wet or contaminated air can make the arc unstable and change edge angle.
If the shield is worn, damaged, or heat-affected, replace it. If the shield looks normal, check nozzle, electrode, torch angle, and air supply before replacing more parts.
Start with torch angle and travel speed, then inspect consumables. Exact cut settings are torch and material dependent and Unknown (Verify) without the manual.
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If plasma consumables are wearing out too fast, the cause is usually not one part alone. Short life often comes from air quality, incorrect cut settings, poor torch handling, or a worn component elsewhere in the torch stack. Start with the basics and check each item in order.
Contaminated air is one of the most common causes of plasma consumables wearing fast. Moisture, oil, and dirt can damage the electrode and nozzle quickly. Verify the air supply, filtration, and dryer setup used on the machine. If the system depends on shop air, inspect the entire air path for contamination and pressure drop.
If air quality is uncertain, treat it as a likely root cause until verified. Unknown (Verify) for actual air cleanliness at the torch inlet.
Incorrect amperage, cut speed, or duty cycle can overheat consumables. Running too hot will erode the nozzle and electrode. Running too slow can put more heat into the part and torch than intended. Check the machine settings against the material and process being used. If those settings are not documented, mark them as Unknown (Verify).
Holding the torch too close can cause double arcing, nozzle damage, and rapid wear. Holding it too far away can also destabilize the arc and increase wear. Maintain the standoff recommended for the torch and process. If the actual cut height is not measured, it is Unknown (Verify).
Not every consumable set is meant for drag contact. If the torch is being dragged across plate with parts that are not intended for that use, the shield and nozzle may wear early. Confirm whether the process is drag cutting, stand-off cutting, or gouging. Unknown (Verify) if the torch is being used outside its intended cutting method.
Consumables wear faster when the torch is restarted repeatedly. Frequent piercing, short cuts, and testing can burn through nozzles and electrodes faster than normal. Reduce unnecessary starts where possible and use the correct pierce delay and cut sequence.
Do not replace only one part if the wear pattern suggests a system problem. Check the electrode, nozzle, shield, swirl ring, and retaining cap for pits, cracks, distortion, or heat damage. A worn swirl ring can disrupt gas flow and shorten life across the set.
Loose connections, damaged leads, or internal torch wear can cause unstable arc behavior. That instability can look like consumable wear, but the root cause may be elsewhere. Check for heat damage, loose fitment, and damaged sealing surfaces. Unknown (Verify) if the torch body or lead set has been inspected recently.
If parts are not seated correctly, gas flow and arc alignment can be affected. Cross-threaded retaining parts, missing seals, or incorrect part order can shorten life immediately. Recheck installation against the machine service procedure.
If the nozzle is pitted and the electrode is deeply worn, replace the related parts as a set. If the swirl ring is damaged or heat affected, inspect the whole consumable stack before returning the torch to service. A single failed part can be a symptom, not the whole problem.
For torch service, the swirl ring is one of the parts that can affect gas flow and consumable life.
[ArcBox: plasma-swirl-ring-hypertherm-220670]
Use only the correct part for the torch and power source. Compatibility beyond the listed application is Unknown (Verify).
Common causes include dirty air, wrong amperage, incorrect standoff, poor torch handling, frequent starts, and worn or misinstalled parts.
Yes. A damaged swirl ring can disrupt gas flow and contribute to unstable cutting and short consumable life.
Not if the nozzle, shield, or swirl ring also show damage. Replace the full set when wear is uneven or the cause is not confirmed.
Start with air quality, then inspect cut settings, standoff, and the full consumable stack.
Introducing the Hypertherm 220670 Swirl Ring, a vital component designed specifically for the Powermax45 plasma cutting system. This high-quality plasma swirl ring features a tough and durable construction, ensuring it withstands the rigors of plasma cutting with precision and efficiency. The plasma swirl ring plays a crucial role in the cutting process by creating a swirling motion in the plasma arc. This results…
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If a plasma cutter is not piercing cleanly, the usual cause is a setup problem rather than a major machine fault. Start with air quality, consumable condition, ground connection, torch angle, and pierce technique. Small errors in any of these areas can leave a ragged start, excessive dross, or a failed pierce.
Plasma cutting depends on clean, dry, correctly regulated air. Low pressure can produce a weak, unstable arc. Water, oil, or heavy contamination can cause sputtering and poor pierce quality.
Worn or damaged consumables are a common reason a plasma cutter is not piercing cleanly. The electrode and nozzle must be in good condition for a focused arc.
Poor work return can make the arc start erratically and cause a messy pierce. The clamp must make solid metal-to-metal contact on clean material.
If the torch is too close, molten metal can blow back into the shield and nozzle. If it is too high, the arc can spread and fail to pierce cleanly.
Thick plate, rusty plate, painted plate, and galvanized material can make piercing harder. Start with a clean spot if possible. If the plate is thick, give the arc enough time to fully transfer before moving.
If air, consumables, and grounding are correct but the pierce still fails, inspect the torch body, leads, and machine output for damage. Intermittent cable faults, heat damage, or loose connectors can reduce performance.
When consumables or shielding parts are worn, replace them with the correct torch parts. For hand cutting shield support, see:
Introducing the Hypertherm 220674 Hand Cutting Shield, your essential companion for plasma cutting tasks. This high-quality plasma cutting shield is designed to protect both your workspace and yourself. Made by Hypertherm, a trusted name in plasma cutting technology, this product ensures superior performance and durability. The Hypertherm Hand Cutting Shield is perfect for both professionals and DIY enthusiasts. I…
View at Arc Weld StoreHypertherm 220674 Plasma Cutting Shield – T45v Hand Cutting Shield, 1 Pack
Use only if it matches the torch model and application. Compatibility for your machine is Unknown (Verify) unless confirmed by the torch manual or parts list.
Most often it is low air pressure, contaminated air, worn consumables, or poor ground contact.
Yes. A damaged or incorrect shield can affect arc focus and increase spatter. Verify the correct shield for the torch model.
Only if the torch and process are designed for drag operation. Otherwise, maintain the correct standoff distance and start upright. Unknown (Verify).
Check air pressure, replace visibly worn consumables, and clean the ground point. Those three checks solve many start-up problems.
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If MIG weld spatter is running high, start with the basics: voltage, wire feed speed, shielding gas, stickout, and gun angle. Spatter is usually a setup issue, a consumable issue, or both. Do not chase one setting without checking the full weld setup.
If voltage is too low for the wire feed speed, the wire can stub into the puddle and throw spatter. If wire feed is too high for the voltage, the arc can become harsh and unstable. Make small changes and test one variable at a time.
Poor shielding gas coverage increases spatter and can cause porosity. Check the flow, hose condition, fittings, and nozzle buildup. Clean the nozzle if spatter is restricting gas flow.
Long stickout reduces arc stability and can drive spatter up. Excessive push or drag angle can also disturb shielding and puddle control. Hold the gun angle consistent and keep stickout controlled.
Dirty, rusty, kinked, or poorly driven wire can feed unevenly and create spatter. Inspect the spool, drive rolls, and liner. If feed is surging, the arc will usually show it.
Mill scale, rust, oil, paint, and moisture all increase spatter. Poor fit-up can also make the arc unstable. Clean the joint and verify the gap, root face, and edge condition before welding.
When spatter remains high after setup checks, verify consumables and wire selection for the job. If you are welding stainless or high-temperature service material, the wire choice must match the application and procedure. Unknown (Verify) if your procedure allows the following wire for the joint and material.
Allowed product: Washington Alloy 309 MIG Welding Wire, 2 LB Spool, .030″ Stainless Steel for High Temp Welding Experience superior welding performance with Washington Alloy 2 Lb. Spool Mig Welding Wire 309 Stainless Steel (.030 X 2 LB.). This high-quality 309 mig welding wire is engineered for exceptional strength and durability in a variety of welding projects. The USA 309 wire is specifically designed for welding heat-resistant AISI 309 and other chromium grades of stainless steel. It excels in applications where pre-hea...
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Washington Alloy 309 MIG Welding Wire, 2 LB Spool, .030" Stainless Steel for High Temp Welding
This product may be relevant when the job calls for 309 stainless wire. Verify base metal, joint design, shielding gas, polarity, and procedure before use.
Common causes are a change in voltage, wire feed, gas flow, stickout, dirty consumables, or contaminated material. Check the full setup before changing the machine again.
No. Gas flow is one factor. High spatter can still come from poor voltage-to-wire-feed balance, bad angle, long stickout, or worn tips.
Yes. A worn or oversized contact tip can create unstable wire delivery and a rough arc.
Only if the wire is damaged, rusty, or feeding poorly. Otherwise, verify machine settings and shielding gas first.
Spool gun wire feed problems usually come from drag, tension, poor setup, or damaged consumables. Aluminum wire is soft, so small resistance changes can stop feed, cause birdnesting, or make the arc unstable.
If the spool is too tight, the motor has to work harder and feed can become jerky. If it is too loose, the spool can overrun and birdnest. Set tension so the spool turns smoothly and stops without freewheeling. Exact adjustment method depends on the gun model: Unknown (Verify).
A worn, restricted, or dirty contact tip can create drag and inconsistent wire delivery. Remove the tip and inspect for spatter, oval wear, or heat damage. Replace if the wire does not pass smoothly. Tip size and material must match the wire being used: Unknown (Verify).
A kinked, dirty, or damaged liner increases friction and can make the feed erratic. Blow out the gun only if the manufacturer allows it. If feed improves when the cable is straightened, liner drag is likely part of the problem. Liner replacement interval is Unknown (Verify).
Too much drive pressure can shave soft aluminum wire. Too little pressure can cause slip. Set pressure only as high as needed to move the wire steadily. Check for pinch points at the inlet, gun neck, and cable exits.
Keep the cable as straight as practical. Avoid tight loops, crushed sections, and contact with hot workpieces. Aluminum wire is sensitive to drag, so even minor routing changes can matter.
If wire piles up in the feeder or at the spool, stop and clear it before restarting. Birdnesting usually means the wire could not advance through the path. Common causes include excessive spool tension, weak drive pressure, worn tip, or liner restriction.
Soft, kinked, corroded, or contaminated wire feeds poorly. Check that the wire is stored dry and loaded without damage. Do not force rusty or flattened wire through the system.
For aluminum MIG work, the spool gun birdnesting guide covers the same feed failure modes in more detail.
Allowed product: The Magnum PRO 100SG spool gun is the lowest cost way to add reliable and precise wire feeding performance for soft aluminum wire. It’s easy to set up for occasional and experienced welders on Lincoln Electric compact wire feeder/welders.
Lincoln Electric Magnum PRO 100SG Spool Gun – for Aluminum MIG Welding – 4 Pin, 10 FT Cable – K3269-1
Product fit and compatibility details for the Magnum PRO 100SG are limited to the provided description. Use only with equipment and wire setups confirmed by the manufacturer. Compatibility with any specific welder or feeder is Unknown (Verify).
The most common causes are spool tension that is too loose, drive pressure that is too high, or too much drag in the tip or liner.
Only enough to maintain steady feed. Excess pressure can shave soft wire and create more problems.
Yes. A worn or blocked tip can add drag, slow the wire, and cause burnback or unstable feed.
Check spool tension, then contact tip condition, then cable routing and liner drag.