Braze or solder together components to assemble fabricated metal parts, using soldering iron, torch, or welding machine and flux.
U.S. Workers
424,040
Median Salary
$51,000
10-Year Growth
+2.2%
Annual Openings
45,600
Typical entry: High school diploma or equivalent
24 of 24 tasks have some AI capability
Exposure Trend
This score reflects estimated AI technical capability for tasks in this occupation. It does not predict employment changes, and it does not account for company-specific constraints, regulation, or adoption barriers.
Guide torches and rods along joints of workpieces to heat them to brazing temperature, melt braze alloys, and bond workpieces together.
AI: Fully automatable - Guiding torches and rods for brazing is effectively handled by industrial robotic brazing/welding systems with programmed paths, thermal control and sensor feedback in production settings.
Adjust electric current and timing cycles of resistance welding machines to heat metals to bonding temperature.
AI: Fully automatable - Adjusting current and timing on resistance welding machines is a parameterized control problem already automated via PLCs and adaptive controllers, often augmented by AI for optimization.
Turn valves to start flow of gases and light flames and adjust valves to obtain desired colors and sizes of flames.
AI: Fully automatable - Valves, gas flow and flame control are straightforward actuations with interlocks and sensors and are commonly automated for safety and repeatability.
Align and clamp workpieces together, using rules, squares, or hand tools, or position items in fixtures, jigs, or vises.
AI: Fully automatable - Alignment and clamping are routine tasks for fixtures and robotic manipulators in manufacturing and can be fully automated where parts and tooling are consistent and well‑designed.
Melt and apply solder to fill holes, indentations, or seams of fabricated metal products, using soldering equipment.
AI: Fully automatable - Applying solder to fill seams and holes is performed by automated soldering equipment (selective, wave, or robotic soldering) with vision guidance in many manufacturing lines.
Clean workpieces to remove dirt or excess acid, using chemical solutions, files, wire brushes, or grinders.
AI: Fully automatable - Cleaning workpieces (chemical baths, ultrasonic cleaners, automated brushing/grinding stations) is commonly automated in production lines and can be fully performed by machines for most parts.
Heat soldering irons or workpieces to specified temperatures for soldering, using gas flames or electric current.
AI: Fully automatable - Heating irons or workpieces to specified temperatures is a direct control task handled by automated heaters and temperature controllers integrated into soldering stations.
Brush flux onto joints of workpieces or dip braze rods into flux to prevent oxidation of metal.
AI: Fully automatable - Applying flux by brushing or dipping can be automated with dispensers, dip stations or robotic end‑effectors and simple process controls.
Clean joints of workpieces with wire brushes or by dipping them into cleaning solutions.
AI: Fully automatable - Cleaning joints with brushes or dipping is a repetitive, low‑complexity task that is routinely automated with fixtures, end‑effectors and simple vision/sequence control by 2025.
Remove workpieces from fixtures, using tongs, and cool workpieces, using air or water.
AI: Fully automatable - Removing parts from fixtures with tongs and cooling them with air or water are routine pick‑and‑place and cooling operations that are readily automated with robots and fluid control systems.
Dip workpieces into molten solder or place solder strips between seams and heat seams with irons to bond items together.
AI: Fully automatable - Dip/wave soldering and robotic selective soldering systems already fully automate dipping and seam soldering in industrial settings, and AI can control these processes reliably in production.
Place solder bars into containers and turn knobs to specified positions to melt solder and regulate its temperature.
AI: Fully automatable - Loading solder bars and setting/mantaining melt temperatures are simple, well‑solved control and robotic tasks that are routinely automated in manufacturing.
Turn dials to set intensity and duration of ultrasonic impulses, according to work order specifications.
AI: Fully automatable - Setting ultrasonic intensity and duration is a parameterization task that can be fully handled by software/AI and automated machine interfaces.
Select torch tips, flux, and brazing alloys from data charts or work orders.
AI: Fully automatable - Selecting torch tips, flux, and alloys from charts or orders is a rules/driven decision plus pick‑and‑place action that AI and automation can fully perform in structured environments.
Cut carbon electrodes to specified sizes and shapes, using cutoff saws.
AI: Fully automatable - Cutting electrodes to specified sizes is a straightforward CNC/cutoff saw operation that can be fully automated and controlled by AI in production.
Clean equipment parts, such as tips of soldering irons, using chemical solutions or cleaning compounds.
AI: Fully automatable - Tip and equipment cleaning is commonly automated with dedicated stations and controlled processes, so AI can fully manage these cleaning tasks in most shops.
Examine seams for defects and rework defective joints or broken parts.
AI: Partial - Automated vision and NDT tools can detect seam defects, but reworking defective joints or broken parts typically requires human judgment and dexterity, so full automation is not generally achieved.
Melt and apply solder along adjoining edges of workpieces to solder joints, using soldering irons, gas torches, or electric-ultrasonic equipment.
AI: Partial - Soldering/brazing can be fully automated in many production contexts, but varied, field, or one‑off joints requiring torch work or complex fixturing still need human operators, so capability is partial.
Grind, cut, buff, or bend edges of workpieces to be joined to ensure snug fit, using power grinders and hand tools.
AI: Partial - Grinding, cutting, buffing and bending are widely supported by CNC and robotic systems for predictable operations, but achieving a snug fit on variable or custom assemblies often requires human adjustment and inspection, so automation is partial.
Smooth soldered areas with alternate strokes of paddles and torches, leaving soldered sections slightly higher than surrounding areas for later filing.
AI: Partial - Smoothing soldered areas with alternating manual paddle/torch strokes and leaving specific material profiles requires nuanced tactile judgment and adaptive manipulation, so only partial automation is typical.
Melt and separate brazed or soldered joints to remove and straighten damaged or misaligned components, using hand torches, irons, or furnaces.
AI: Partial - Melting and separating brazed/soldered joints on damaged or misaligned parts involves complex assessment and delicate manipulation that current automation can only partially handle in controlled cases.
Connect hoses from torches to regulator valves and cylinders of oxygen and specified gas fuels.
AI: Partial - Robotic manipulators and AI can connect hoses in highly controlled, repetitive setups, but transferring that to varied, safety‑critical cylinder and regulator hookups in general workplaces remains only partially automated as of 2025.
Sweat together workpieces coated with solder.
AI: Partial - Automated/robotic soldering exists for many repeatable sweating operations, but variable part geometries and fixturing requirements keep many sweat‑soldering tasks only partially automatable.
Remove workpieces from molten solder and hold parts together until color indicates that solder has set.
AI: Partial - Removing parts from molten solder and timing/visually judging set by color requires fine manipulation and nuanced visual judgment that current automation can only partially replicate.