Forging Machine Setters, Operators, and Tenders, Metal and Plastic

Salary Overview

Job Outlook (2024–2034)

Key Skills

Knowledge Areas

What They Do

• Measure and inspect machined parts to ensure conformance to product specifications.
• Set up, operate, or tend presses and forging machines to perform hot or cold forging by flattening, straightening, bending, cutting, piercing, or other operations to taper, shape, or form metal.
• Turn handles or knobs to set pressures and depths of ram strokes and to synchronize machine operations.
• Install, adjust, and remove dies, synchronizing cams, forging hammers, and stop guides, using overhead cranes or other hoisting devices, and hand tools.
• Start machines to produce sample workpieces, and observe operations to detect machine malfunctions and to verify that machine setups conform to specifications.
• Confer with other workers about machine setups and operational specifications.
• Remove dies from machines when production runs are finished.
• Read work orders or blueprints to determine specified tolerances and sequences of operations for machine setup.

Tools & Technology

★ = Hot Technology (in-demand)

Education Requirements

Typical entry-level education: High School Diploma

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Featured In

Careers with the highest skill compatibility from Forging Machine Setters, Operators, and Tenders, Metal and Plastic.

A Day in the Life

A forging machine operator's shift typically begins with reviewing work orders and blueprints to understand the specifications for the day's production run. The first task is often setting up the forging machine, which involves installing and aligning dies, adjusting stroke length and pressure settings, and preheating furnaces to the required temperature. Once setup is complete, operators load metal blanks or billets into the machine, either manually or using hoists and conveyors, and initiate the forging cycle. During production, operators monitor machine operations closely, watching for signs of die wear, material defects, or temperature fluctuations that could affect part quality. Regular quality checks using calipers, micrometers, and gauges ensure parts meet dimensional tolerances. Operators make adjustments throughout the shift to maintain consistent output as tools wear and conditions change. End-of-shift duties include cleaning equipment, documenting production counts and quality data, and reporting any maintenance needs. In hot forging operations, the constant heat from furnaces and glowing metal makes the environment physically intense.

Work Environment

Forging facilities are industrial environments characterized by significant heat, noise, and physical demands. Hot forging shops maintain furnaces operating at temperatures exceeding 2,000 degrees Fahrenheit, creating ambient temperatures that can be extremely uncomfortable. The noise from hammers, presses, and material handling equipment requires mandatory hearing protection and limits verbal communication. Operators stand for extended periods and regularly lift and position heavy metal workpieces, though mechanical assists are used for larger components. Personal protective equipment including heat-resistant gloves, safety glasses, steel-toed boots, face shields, and hearing protection is standard. The work follows shift schedules, with many forging operations running two or three shifts to maximize equipment utilization. Air quality management systems are important to control fumes and particulates generated during the forging process. Safety protocols are rigorous given the significant hazards of working with heavy machinery, extreme heat, and moving metal. Modern forging facilities increasingly feature automated material handling and computer-controlled presses that reduce physical strain.

Career Path & Advancement

Most forging machine operator positions require a high school diploma or GED, with skills developed primarily through on-the-job training. Some workers enter through vocational programs or community college courses in machining, metalworking, or manufacturing technology. New operators typically start as helpers or tenders, learning to load materials, monitor basic machine functions, and inspect finished parts under supervision. Over several months to a year, they progress to operating machines independently and eventually to the more complex role of machine setup. Apprenticeship programs offered by some larger forging companies provide structured training combining classroom instruction with hands-on work. Experienced operators can advance to lead operator, shift supervisor, or quality inspector roles. Some pursue certifications from organizations like the Forging Industry Association to validate their expertise. Technical knowledge in CNC programming, hydraulic systems, or metallurgy can open doors to positions in process engineering, tool design, or production management.

Specializations

Forging machine operations encompass several distinct processes, each requiring specialized knowledge. Open die forging operators work with large hammers and presses to shape metal between flat or simple dies, producing custom and heavy parts. Closed die forging operators use shaped die cavities to produce high-volume precision parts with complex geometries. Roll forging operators use specialized rolling machines to reduce cross-sections and elongate metal workpieces. Upset forging operators specialize in increasing the diameter of a workpiece by compressing its length, commonly used for bolt heads and valve parts. Cold forging operators work with metals at or near room temperature, producing parts with superior surface finish and tighter tolerances. Hot forging specialists manage materials heated to high temperatures for maximum malleability. Press operators work with hydraulic or mechanical presses that apply steady pressure, while hammer operators use drop hammers or counterblow hammers that deliver impact force. Die maintenance specialists focus on inspecting, reconditioning, and replacing the costly dies that shape forged parts.

Pros & Cons

Industry Insight

The forging industry continues to be essential for producing high-strength components for automotive, aerospace, energy, and defense applications where material integrity is critical. Automation and Industry 4.0 technologies are transforming forging operations, with robotic material handling, sensor-based process monitoring, and data-driven quality control becoming standard in modern facilities. The shift toward electric vehicles is changing demand patterns, reducing the need for some traditional automotive forgings while creating demand for new component types. Near-net-shape forging techniques that minimize subsequent machining are increasingly valued for cost and material efficiency. Reshoring of manufacturing has benefited domestic forging companies as supply chain resilience becomes a priority. Skilled operator shortages are significant, as retiring workers outnumber new entrants and the physically demanding nature of the work limits the applicant pool. Investment in less physically demanding automated systems is partly driven by workforce availability challenges. Lightweight materials including aluminum and titanium alloys are growing in importance, requiring operators to adapt their techniques and knowledge.