Set up, operate, or tend wood sawing machines. May operate CNC equipment. Includes lead sawyers.
U.S. Workers
43,140
Median Salary
$39,950
10-Year Growth
-0.6%
Annual Openings
4,800
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.
Inspect and measure workpieces to mark for cuts and to verify the accuracy of cuts, using rulers, squares, or caliper rules.
AI: Fully automatable - Inspection and measurement can be fully performed by machine-vision and automated gauging systems with high accuracy for most shop tasks.
Set up, operate, or tend saws or machines that cut or trim wood to specified dimensions, such as circular saws, band saws, multiple-blade sawing machines, scroll saws, ripsaws, or crozer machines.
AI: Fully automatable - Setting up, operating, and tending saws can be fully automated in many contexts using CNC controls, automated feeders, and robotic tending systems.
Examine logs or lumber to plan the best cuts.
AI: Fully automatable - 3D/optical scanners combined with optimization algorithms can plan optimal cuts from logs/lumber reliably in modern sawmills.
Trim lumber to straighten rough edges or remove defects, using circular saws.
AI: Fully automatable - Edgers and trimmers with automatic feeding and CNC control can trim and remove defects from lumber without manual sawing in typical production environments.
Inspect stock for imperfections or to estimate grades or qualities of stock or workpieces.
AI: Fully automatable - By 2025 computer vision and scanner-based systems with ML models can detect surface defects and perform grade estimation for lumber with production-grade accuracy.
Count, sort, or stack finished workpieces.
AI: Fully automatable - Automated conveyors, vision systems, sorters, and robotic palletizers can count, sort, and stack finished workpieces at industrial scale.
Measure and mark stock for cuts.
AI: Fully automatable - Computer vision, sensors, and automated marking systems can measure and mark stock to specified tolerances and integrate with digital work orders.
Operate panelboards of saw or conveyor systems to move stock through processes or to cut stock to specified dimensions.
AI: Fully automatable - Industrial control systems and AI-driven process controllers can operate panelboards, conveyors, and saw controls to route and cut stock to specified dimensions.
Examine blueprints, drawings, work orders, or patterns to determine equipment set-up or selection details, procedures to be used, or dimensions of final products.
AI: Fully automatable - AI (LLMs plus CAD/CAM parsers) can read blueprints/work orders and generate equipment setups and procedure specifications for automated systems.
Select saw blades, types or grades of stock, or cutting procedures to be used, according to work orders or supervisors' instructions.
AI: Fully automatable - AI systems can map work orders and material properties to recommended blade types and cutting procedures and automate selection logic in modern facilities.
Cut grooves, bevels, or miters, saw curved or irregular designs, and sever or shape metals, according to specifications or work orders.
AI: Fully automatable - CNC, CAM, and robot cutting systems can execute grooves, bevels, miters, and complex shapes to specification with AI-assisted toolpath generation.
Dispose of waste material after completing work assignments.
AI: Fully automatable - Waste handling and disposal are commonly automated with conveyors, chippers, and material-handling systems that can be integrated and controlled by AI.
Adjust saw blades, using wrenches and rulers, or by turning handwheels or pressing pedals, levers, or panel buttons.
AI: Partial - Adjusting saw blades is a physical maintenance task that AI can guide or partially automate but often requires human intervention for safety and variability.
Mount and bolt sawing blades or attachments to machine shafts.
AI: Partial - Mounting and bolting blades can be automated in specialized setups, but in typical woodworking shops it remains a manual task with only partial automation available.
Adjust bolts, clamps, stops, guides, or table angles or heights, using hand tools.
AI: Partial - Many machines offer motorized or quick-change adjustments, yet a large share of bolt/clamp adjustments using hand tools remains manual, so automation is partial.
Monitor sawing machines, adjusting speed and tension and clearing jams to ensure proper operation.
AI: Partial - Sensors and control systems can monitor and auto-adjust speed and tension, but clearing mechanical jams typically still requires human intervention or bespoke robotic solutions, so only partial automation is common.
Sharpen blades or replace defective or worn blades or bands, using hand tools.
AI: Partial - Dedicated automated sharpening and blade-change stations exist, but sharpening or replacing blades 'using hand tools' remains largely a manual task in most facilities, so automation is partial.
Guide workpieces against saws, saw over workpieces by hand, or operate automatic feeding devices to guide cuts.
AI: Partial - Automatic feeders and robotic guides can handle many cuts, but manual hand-guiding of workpieces still occurs and is not universally replaceable by AI/robotics in 2025.
Position and clamp stock on tables, conveyors, or carriages, using hoists, guides, stops, dogs, wedges, or wrenches.
AI: Partial - Robotics and automated fixtures can position and clamp stock in structured setups, but irregular shapes and ad hoc adjustments still require human judgment and dexterity.
Unload and roll logs from trucks to sawmill decks or to carriages or move logs in ponds, using pike poles.
AI: Partial - Heavy log unloading and pond/roll handling can be partially automated with mechanized loaders and autonomy, but many sites still rely on manual tools (pike poles) and human oversight for unstructured conditions.
Clear machine jams, using hand tools.
AI: Partial - Jam detection can be automated, and some systems have automated clearing mechanisms, but complex or varied jams usually require human hands, making this only partially automatable.
Pull tables back against stops and depress pedals to advance cutterheads that shape stock ends.
AI: Partial - Actuation of tables and pedals can be mechanized, but many legacy machines and variable tasks still require human operators for safety and ad hoc control.
Unclamp and remove finished workpieces from tables.
AI: Partial - Robotic part removal is feasible in structured, repeatable contexts, but variability, part handling, and changeovers mean humans remain necessary in many operations.
Lubricate or clean machines, using wrenches, grease guns, or solvents.
AI: Partial - Centralized lubrication systems and automated cleaning exist for routine tasks, but detailed cleaning and maintenance using hand tools are still typically performed by humans.