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CNC Setup / Operator

Why Study CNC Setup / Operator at LSC?

This one-year program prepares students for careers as CNC operators, combining hands-on machine operation with technical theory. The program is divided into two semesters, where the first focuses on foundational knowledge and manual machine operation, and the second emphasizes advanced CNC operations and precision. The diploma provides students with the foundational skills and knowledge necessary for a successful career in CNC operation.

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Career Information

Below you will find the Career Field and Career Cluster that this program is related to. Learn more about if this career area fits your interests!

Is Manufacturing right for you?

Manufacturing workers work with products and equipment. You might design a new product, decide how the product will be made, or make the product. You might work on cars, computers, appliances, airplanes, or electronic devices.

$57K

$27/hr

Median annual salary/wage for
Computer Numerically Controlled Tool Operators
in Minnesota

Details

177K

Computer Numerically Controlled Tool Operators are currently employed

Details

This data is delivered by an API from CareerOneStop, sponsored by U.S. Department of Labor, Employment and Training Administration. www.careeronestop.org Find more information including data update schedules at CareerOneStop's Data Sources (https://www.careeronestop.org/Help/data-sources.aspx). Full list of datasources.

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Median Annual Salary/Wage Earnings for Computer Numerically Controlled Tool Operators

the United States

$51K
$24/hr

$38K - $74K

$18/hr - $35/hr

Minnesota

$57K
$27/hr

$44K - $76K

$21/hr - $36/hr

Duluth, MN Area

$52K
$25/hr

$42K - $64K

$20/hr - $30/hr

The Occupational Employment and Wage Statistics (OEWS) program produces employment and wage estimates annually for over 800 occupations. These estimates are available for the nation as a whole, for individual states, and for metropolitan and nonmetropolitan areas; national occupational estimates for specific industries are also available.

Salary data are from U.S. Department of Labor, Bureau of Labor Statistics, Occupational Employment and Wage Statistics (OEWS) program (www.bls.gov/oes/). Current as of June 2026.

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Employment Numbers for Computer Numerically Controlled Tool Operators

the United States

Estimated Employment:

177,100

Minnesota

Estimated Employment:

4,210

My Next Move provides career outlook designations that include Bright, Average, or Below Average. Bright Outlook occupations are expected to grow rapidly in the next several years, will have large numbers of job openings, or are new and emerging occupations.

Occupation outlook data come from O*NET Bright Outlook occupations (www.onetonline.org/find/bright) and My Next Move career outlook designations (www.onetcenter.org/bright/current/mnm_outlook.html). Note this information is only available at a national level, so even if you selected a state, you’ll see this information for the whole country. Current as of November 2024.

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Alternative Job Titles for Computer Numerically Controlled Tool Operators

  • CNC Gear Operator (Computer Numerical Control Gear Operator)
  • CNC Lathe Operator (Computer Numerical Control Lathe Operator)
  • CNC Machine Operator (Computer Numerical Control Machine Operator)
  • CNC Machinist (Computer Numerical Control Machinist)
  • CNC Mill Operator (Computer Numerical Control Mill Operator)
  • CNC Operator (Computer Numerical Control Operator)
  • CNC Set Up Operator (Computer Numerical Control Set Up Operator)
  • Machine Operator
  • Machine Set Up Operator

The O*NET database contains a rich set of variables that describe work and worker characteristics, including skill requirements.

Occupation data (titles, sample titles, descriptions, daily work activities, knowledge, skills, abilities, tasks, related occupations, technologies and tools, and work values) come from the O*NET 29.0 Database (www.onetcenter.org/database.html) by the U.S. Department of Labor, Employment and Training Administration (USDOL/ETA). Used under the CC BY 4.0 (creativecommons.org/licenses/by/4.0/) license. O*NET® is a trademark of USDOL/ETA. Current as of October 2024.

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Job Tasks and Activities for Computer Numerically Controlled Tool Operators

  • Adjust equipment controls to regulate coolant flow.
  • Adjust equipment controls to regulate flow of production materials or products.
  • Adjust machine feed and speed, change cutting tools, or adjust machine controls when automatic programming is faulty or if machines malfunction.
  • Calculate machine speed and feed ratios and the size and position of cuts.
  • Calculate specific material, equipment, or labor requirements for production.
  • Check to ensure that workpieces are properly lubricated and cooled during machine operation.
  • Clean machines, tooling, or parts, using solvents or solutions and rags.
  • Clean production equipment.
  • Confer with others to resolve production problems or equipment malfunctions.
  • Confer with supervisors or programmers to resolve machine malfunctions or production errors or to obtain approval to continue production.
  • Control coolant systems.
  • Draw guide lines or markings on materials or workpieces using patterns or other references.
  • Enter commands or load control media, such as tapes, cards, or disks, into machine controllers to retrieve programmed instructions.
  • Enter commands, instructions, or specifications into equipment.
  • Examine electronic components for defects or completeness of laser-beam trimming, using microscopes.
  • Implement changes to machine programs, and enter new specifications, using computers.
  • Input initial part dimensions into machine control panels.
  • Insert control instructions into machine control units to start operation.
  • Install mechanical components in production equipment.
  • Lay out and mark areas of parts to be shot peened and fill hoppers with shot.
  • Lift materials or workpieces using cranes or other lifting equipment.
  • Lift workpieces to machines manually or with hoists or cranes.
  • Listen to machines during operation to detect sounds such as those made by dull cutting tools or excessive vibration, and adjust machines to compensate for problems.
  • Load materials into production equipment.
  • Maintain machines and remove and replace broken or worn machine tools, using hand tools.
  • Maintain production or processing equipment.
  • Measure dimensions of completed products or workpieces to verify conformance to specifications.
  • Measure dimensions of finished workpieces to ensure conformance to specifications, using precision measuring instruments, templates, and fixtures.
  • Modify cutting programs to account for problems encountered during operation, and save modified programs.
  • Monitor equipment operation to ensure proper functioning.
  • Monitor lubrication of equipment or workpieces.
  • Monitor machine operation and control panel displays, and compare readings to specifications to detect malfunctions.
  • Mount attachments or tools onto production equipment.
  • Mount materials or workpieces onto production equipment.
  • Mount, install, align, and secure tools, attachments, fixtures, and workpieces on machines, using hand tools and precision measuring instruments.
  • Program equipment to perform production tasks.
  • Remove accessories, tools, or other parts from equipment.
  • Remove and replace dull cutting tools.
  • Remove products or workpieces from production equipment.
  • Replace worn equipment components.
  • Review program specifications or blueprints to determine and set machine operations and sequencing, finished workpiece dimensions, or numerical control sequences.
  • Set equipment controls to meet cutting specifications.
  • Set up and operate computer-controlled machines or robots to perform one or more machine functions on metal or plastic workpieces.
  • Set up future jobs while machines are operating.
  • Stack finished items for further processing or shipment.
  • Stack or load finished items, or place items on conveyor systems.
  • Stop machines to remove finished workpieces or to change tooling, setup, or workpiece placement, according to required machining sequences.
  • Study blueprints or other instructions to determine equipment setup requirements.
  • Test electrical equipment or systems to ensure proper functioning.
  • Transfer commands from servers to computer numerical control (CNC) modules, using computer network links.
  • Watch operating equipment to detect malfunctions.
  • Write simple programs for computer-controlled machine tools.

The O*NET database contains a rich set of variables that describe work and worker characteristics, including skill requirements.

Occupation data (titles, sample titles, descriptions, daily work activities, knowledge, skills, abilities, tasks, related occupations, technologies and tools, and work values) come from the O*NET 29.0 Database (www.onetcenter.org/database.html) by the U.S. Department of Labor, Employment and Training Administration (USDOL/ETA). Used under the CC BY 4.0 (creativecommons.org/licenses/by/4.0/) license. O*NET® is a trademark of USDOL/ETA. Current as of October 2024.

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Interests for Computer Numerically Controlled Tool Operators

  • Realistic
    Designing, building, or repairing equipment, materials, or structures, engaging in physical activity, or working outdoors.
  • Conventional
    Following procedures and regulations to organize information or data, typically in a business setting.

The O*NET database contains a rich set of variables that describe work and worker characteristics, including skill requirements.

Occupation data (titles, sample titles, descriptions, daily work activities, knowledge, skills, abilities, tasks, related occupations, technologies and tools, and work values) come from the O*NET 29.0 Database (www.onetcenter.org/database.html) by the U.S. Department of Labor, Employment and Training Administration (USDOL/ETA). Used under the CC BY 4.0 (creativecommons.org/licenses/by/4.0/) license. O*NET® is a trademark of USDOL/ETA. Current as of October 2024.

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Skills for Computer Numerically Controlled Tool Operators

In order of importance

  • Operations Monitoring
    Watching gauges, dials, or display screens to make sure a machine is working.
    Importance: 78/100
  • Operation and Control
    Using equipment or systems.
    Importance: 78/100
  • Monitoring
    Keeping track of how well people and/or groups are doing in order to make improvements.
    Importance: 66/100
  • Critical Thinking
    Thinking about the pros and cons of different ways to solve a problem.
    Importance: 66/100
  • Quality Control Analysis
    Testing how well a product or service works.
    Importance: 60/100
  • Complex Problem Solving
    Noticing a problem and figuring out the best way to solve it.
    Importance: 53/100
  • Active Listening
    Listening to others, not interrupting, and asking good questions.
    Importance: 53/100
  • Troubleshooting
    Figuring out what is causing equipment, machines, wiring, or computer programs to not work.
    Importance: 53/100
  • Time Management
    Managing your time and the time of other people.
    Importance: 50/100
  • Judgment and Decision Making
    Thinking about the pros and cons of different options and picking the best one.
    Importance: 50/100
  • Repairing
    Repairing machines or systems using the right tools.
    Importance: 50/100
  • Equipment Maintenance
    Planning and doing the basic maintenance on equipment.
    Importance: 50/100
  • Speaking
    Talking to others.
    Importance: 50/100
  • Systems Analysis
    Figuring out how a system should work and how changes in the future will affect it.
    Importance: 47/100
  • Reading Comprehension
    Reading work-related information.
    Importance: 47/100
  • Social Perceptiveness
    Understanding people's reactions.
    Importance: 47/100
  • Active Learning
    Figuring out how to use new ideas or things.
    Importance: 47/100
  • Coordination
    Changing what is done based on other people's actions.
    Importance: 47/100
  • Systems Evaluation
    Measuring how well a system is working and how to improve it.
    Importance: 47/100
  • Mathematics
    Using math to solve problems.
    Importance: 44/100
  • Instructing
    Teaching people how to do something.
    Importance: 44/100
  • Equipment Selection
    Deciding what kind of tools and equipment are needed to do a job.
    Importance: 44/100
  • Writing
    Writing things for co-workers or customers.
    Importance: 41/100
  • Learning Strategies
    Using the best training or teaching strategies for learning new things.
    Importance: 41/100
  • Operations Analysis
    Figuring out what a product or service needs to be able to do.
    Importance: 38/100
  • Management of Personnel Resources
    Selecting and managing the best workers for a job.
    Importance: 35/100
  • Installation
    Installing equipment, machines, wiring, or computer programs.
    Importance: 28/100
  • Programming
    Writing computer programs.
    Importance: 28/100
  • Negotiation
    Bringing people together to solve differences.
    Importance: 25/100
  • Service Orientation
    Looking for ways to help people.
    Importance: 25/100
  • Persuasion
    Talking people into changing their minds or their behavior.
    Importance: 22/100
  • Technology Design
    Making equipment and technology useful for customers.
    Importance: 19/100
  • Science
    Using scientific rules and strategies to solve problems.
    Importance: 16/100
  • Management of Material Resources
    Managing equipment and materials.
    Importance: 16/100
  • Management of Financial Resources
    Making spending decisions and keeping track of what is spent.
    Importance: 13/100

The O*NET database contains a rich set of variables that describe work and worker characteristics, including skill requirements.

Occupation data (titles, sample titles, descriptions, daily work activities, knowledge, skills, abilities, tasks, related occupations, technologies and tools, and work values) come from the O*NET 29.0 Database (www.onetcenter.org/database.html) by the U.S. Department of Labor, Employment and Training Administration (USDOL/ETA). Used under the CC BY 4.0 (creativecommons.org/licenses/by/4.0/) license. O*NET® is a trademark of USDOL/ETA. Current as of October 2024.

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Knowledge for Computer Numerically Controlled Tool Operators

In order of importance

  • Mathematics
    Knowledge of arithmetic, algebra, geometry, calculus, statistics, and their applications.
    Importance: 79/100
  • Production and Processing
    Knowledge of raw materials, production processes, quality control, costs, and other techniques for maximizing the effective manufacture and distribution of goods.
    Importance: 76/100
  • Mechanical
    Knowledge of machines and tools, including their designs, uses, repair, and maintenance.
    Importance: 70/100
  • English Language
    Knowledge of the structure and content of the English language including the meaning and spelling of words, and rules of composition and grammar.
    Importance: 58/100
  • Engineering and Technology
    Knowledge of the practical application of engineering science and technology. This includes applying principles, techniques, procedures, and equipment to the design and production of various goods and services.
    Importance: 57/100
  • Education and Training
    Knowledge of principles and methods for curriculum and training design, teaching and instruction for individuals and groups, and the measurement of training effects.
    Importance: 53/100
  • Design
    Knowledge of design techniques, tools, and principles involved in production of precision technical plans, blueprints, drawings, and models.
    Importance: 52/100
  • Administration and Management
    Knowledge of business and management principles involved in strategic planning, resource allocation, human resources modeling, leadership technique, production methods, and coordination of people and resources.
    Importance: 50/100
  • Computers and Electronics
    Knowledge of circuit boards, processors, chips, electronic equipment, and computer hardware and software, including applications and programming.
    Importance: 49/100
  • Physics
    Knowledge and prediction of physical principles, laws, their interrelationships, and applications to understanding fluid, material, and atmospheric dynamics, and mechanical, electrical, atomic and sub-atomic structures and processes.
    Importance: 39/100
  • Administrative
    Knowledge of administrative and office procedures and systems such as word processing, managing files and records, stenography and transcription, designing forms, and workplace terminology.
    Importance: 36/100
  • Personnel and Human Resources
    Knowledge of principles and procedures for personnel recruitment, selection, training, compensation and benefits, labor relations and negotiation, and personnel information systems.
    Importance: 35/100
  • Customer and Personal Service
    Knowledge of principles and processes for providing customer and personal services. This includes customer needs assessment, meeting quality standards for services, and evaluation of customer satisfaction.
    Importance: 32/100
  • Chemistry
    Knowledge of the chemical composition, structure, and properties of substances and of the chemical processes and transformations that they undergo. This includes uses of chemicals and their interactions, danger signs, production techniques, and disposal methods.
    Importance: 31/100
  • Public Safety and Security
    Knowledge of relevant equipment, policies, procedures, and strategies to promote effective local, state, or national security operations for the protection of people, data, property, and institutions.
    Importance: 28/100
  • Psychology
    Knowledge of human behavior and performance; individual differences in ability, personality, and interests; learning and motivation; psychological research methods; and the assessment and treatment of behavioral and affective disorders.
    Importance: 24/100
  • Economics and Accounting
    Knowledge of economic and accounting principles and practices, the financial markets, banking, and the analysis and reporting of financial data.
    Importance: 24/100
  • Communications and Media
    Knowledge of media production, communication, and dissemination techniques and methods. This includes alternative ways to inform and entertain via written, oral, and visual media.
    Importance: 22/100
  • Sales and Marketing
    Knowledge of principles and methods for showing, promoting, and selling products or services. This includes marketing strategy and tactics, product demonstration, sales techniques, and sales control systems.
    Importance: 21/100
  • Transportation
    Knowledge of principles and methods for moving people or goods by air, rail, sea, or road, including the relative costs and benefits.
    Importance: 21/100
  • Law and Government
    Knowledge of laws, legal codes, court procedures, precedents, government regulations, executive orders, agency rules, and the democratic political process.
    Importance: 18/100
  • Building and Construction
    Knowledge of materials, methods, and the tools involved in the construction or repair of houses, buildings, or other structures such as highways and roads.
    Importance: 17/100
  • Telecommunications
    Knowledge of transmission, broadcasting, switching, control, and operation of telecommunications systems.
    Importance: 16/100
  • Sociology and Anthropology
    Knowledge of group behavior and dynamics, societal trends and influences, human migrations, ethnicity, cultures, and their history and origins.
    Importance: 11/100
  • Philosophy and Theology
    Knowledge of different philosophical systems and religions. This includes their basic principles, values, ethics, ways of thinking, customs, practices, and their impact on human culture.
    Importance: 11/100
  • History and Archeology
    Knowledge of historical events and their causes, indicators, and effects on civilizations and cultures.
    Importance: 9/100
  • Foreign Language
    Knowledge of the structure and content of a foreign (non-English) language including the meaning and spelling of words, rules of composition and grammar, and pronunciation.
    Importance: 9/100
  • Geography
    Knowledge of principles and methods for describing the features of land, sea, and air masses, including their physical characteristics, locations, interrelationships, and distribution of plant, animal, and human life.
    Importance: 9/100
  • Therapy and Counseling
    Knowledge of principles, methods, and procedures for diagnosis, treatment, and rehabilitation of physical and mental dysfunctions, and for career counseling and guidance.
    Importance: 8/100
  • Biology
    Knowledge of plant and animal organisms, their tissues, cells, functions, interdependencies, and interactions with each other and the environment.
    Importance: 7/100
  • Medicine and Dentistry
    Knowledge of the information and techniques needed to diagnose and treat human injuries, diseases, and deformities. This includes symptoms, treatment alternatives, drug properties and interactions, and preventive health-care measures.
    Importance: 6/100
  • Fine Arts
    Knowledge of the theory and techniques required to compose, produce, and perform works of music, dance, visual arts, drama, and sculpture.
    Importance: 4/100
  • Food Production
    Knowledge of techniques and equipment for planting, growing, and harvesting food products (both plant and animal) for consumption, including storage/handling techniques.
    Importance: 3/100

The O*NET database contains a rich set of variables that describe work and worker characteristics, including skill requirements.

Occupation data (titles, sample titles, descriptions, daily work activities, knowledge, skills, abilities, tasks, related occupations, technologies and tools, and work values) come from the O*NET 29.0 Database (www.onetcenter.org/database.html) by the U.S. Department of Labor, Employment and Training Administration (USDOL/ETA). Used under the CC BY 4.0 (creativecommons.org/licenses/by/4.0/) license. O*NET® is a trademark of USDOL/ETA. Current as of October 2024.

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Physical Abilities for Computer Numerically Controlled Tool Operators

In order of importance

  • Near Vision
    Seeing details up close.
    Importance: 69/100
  • Arm-Hand Steadiness
    Keeping your arm or hand steady.
    Importance: 69/100
  • Information Ordering
    Ordering or arranging things.
    Importance: 66/100
  • Problem Sensitivity
    Noticing when problems happen.
    Importance: 66/100
  • Reaction Time
    Quickly moving your hand, finger, or foot based on a sound, light, picture or other command.
    Importance: 63/100
  • Control Precision
    Quickly changing the controls of a machine, car, truck or boat.
    Importance: 63/100
  • Hearing Sensitivity
    Telling the difference between sounds.
    Importance: 60/100
  • Manual Dexterity
    Holding or moving items with your hands.
    Importance: 56/100
  • Auditory Attention
    Paying attention to one sound while there are other distracting sounds.
    Importance: 56/100
  • Perceptual Speed
    Quickly comparing groups of letters, numbers, pictures, or other things.
    Importance: 56/100
  • Oral Comprehension
    Listening and understanding what people say.
    Importance: 56/100
  • Finger Dexterity
    Putting together small parts with your fingers.
    Importance: 56/100
  • Visualization
    Imagining how something will look after it is moved around or changed.
    Importance: 56/100
  • Selective Attention
    Paying attention to something without being distracted.
    Importance: 53/100
  • Trunk Strength
    Using your lower back and stomach.
    Importance: 53/100
  • Deductive Reasoning
    Using rules to solve problems.
    Importance: 53/100
  • Category Flexibility
    Grouping things in different ways.
    Importance: 53/100
  • Flexibility of Closure
    Seeing hidden patterns.
    Importance: 53/100
  • Multilimb Coordination
    Using your arms and/or legs together while sitting, standing, or lying down.
    Importance: 53/100
  • Rate Control
    Changing when and how fast you move based on how something else is moving.
    Importance: 53/100
  • Speed of Closure
    Quickly knowing what you are looking at.
    Importance: 50/100
  • Written Comprehension
    Reading and understanding what is written.
    Importance: 50/100
  • Number Facility
    Adding, subtracting, multiplying, or dividing.
    Importance: 50/100
  • Speech Clarity
    Speaking clearly.
    Importance: 50/100
  • Oral Expression
    Communicating by speaking.
    Importance: 50/100
  • Visual Color Discrimination
    Noticing the difference between colors, including shades and brightness.
    Importance: 50/100
  • Inductive Reasoning
    Making general rules or coming up with answers from lots of detailed information.
    Importance: 50/100
  • Depth Perception
    Deciding which thing is closer or farther away from you, or deciding how far away it is from you.
    Importance: 50/100
  • Speech Recognition
    Recognizing spoken words.
    Importance: 50/100
  • Fluency of Ideas
    Coming up with lots of ideas.
    Importance: 47/100
  • Far Vision
    Seeing details that are far away.
    Importance: 47/100
  • Response Orientation
    Quickly deciding if you should move your hand, foot, or other body part.
    Importance: 47/100
  • Static Strength
    Lifting, pushing, pulling, or carrying.
    Importance: 47/100
  • Wrist-Finger Speed
    Making fast, simple, repeated movements of your fingers, hands, and wrists.
    Importance: 47/100
  • Written Expression
    Communicating by writing.
    Importance: 47/100
  • Originality
    Creating new and original ideas.
    Importance: 44/100
  • Time Sharing
    Doing two or more things at the same time.
    Importance: 44/100
  • Memorization
    Remembering words, numbers, pictures, or steps.
    Importance: 44/100
  • Mathematical Reasoning
    Choosing the right type of math to solve a problem.
    Importance: 44/100
  • Sound Localization
    Noticing the direction that a sound came from.
    Importance: 41/100
  • Extent Flexibility
    Bending, stretching, twisting, or reaching with your body, arms, and/or legs.
    Importance: 38/100
  • Stamina
    Exercising for a long time without getting out of breath.
    Importance: 35/100
  • Dynamic Strength
    Exercising for a long time without your muscles getting tired.
    Importance: 31/100
  • Speed of Limb Movement
    Quickly moving your arms and legs.
    Importance: 31/100
  • Gross Body Coordination
    Moving your arms, legs, and mid-section together while your whole body is moving.
    Importance: 28/100
  • Spatial Orientation
    Knowing where things are around you.
    Importance: 28/100
  • Peripheral Vision
    Seeing something to your side when your are looking ahead.
    Importance: 28/100
  • Gross Body Equilibrium
    Keeping your balance or staying upright.
    Importance: 25/100
  • Glare Sensitivity
    Seeing something even if there is a glare or very bright light.
    Importance: 19/100
  • Night Vision
    Seeing at night or under low light.
    Importance: 19/100
  • Explosive Strength
    Jumping, sprinting, or throwing something.
    Importance: 13/100
  • Dynamic Flexibility
    Quickly and repeatedly bending, stretching, twisting, or reaching out with your body, arms, and/or legs.
    Importance: 6/100

The O*NET database contains a rich set of variables that describe work and worker characteristics, including skill requirements.

Occupation data (titles, sample titles, descriptions, daily work activities, knowledge, skills, abilities, tasks, related occupations, technologies and tools, and work values) come from the O*NET 29.0 Database (www.onetcenter.org/database.html) by the U.S. Department of Labor, Employment and Training Administration (USDOL/ETA). Used under the CC BY 4.0 (creativecommons.org/licenses/by/4.0/) license. O*NET® is a trademark of USDOL/ETA. Current as of October 2024.

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Tools and Technology used by Computer Numerically Controlled Tool Operators

  • Calipers
  • Tracer or duplicating or contouring lathe
  • Traveling column milling machine
  • Turning machines
  • Milling machines
  • Tapping machine
  • Boring machines
  • Microcontrollers
  • Dial indicator or dial gauge
  • Horizontal machining center
  • Hydraulic press brake
  • Micrometers
  • Drill press or radial drill
  • Threading machine
  • Wire cathode electrode discharge machine
  • Bench vises
  • Automatic lathe or chucking machine
  • Surface grinding machine
  • Hoists
  • Power buffers
  • Comparators
  • Safety glasses
  • Horizontal turning center
  • Vertical machining center
  • Forklifts
  • Welding masks
  • Metal broaching machines
  • Form tools or toolbits
  • Power grinders
  • Height gauges
  • Edge bander
  • Pin gauge
  • Turret lathe
  • Laser cutting machine
  • Profiling and duplicating milling machine
  • Game pads or joy sticks
  • Furnaces
  • Laser measuring systems
  • Vertical turning center
  • Spot welding machine
  • Deburring tool
  • Thread counters or gauges
  • Power routers
  • Chucks
  • Hand reamer
  • Hole gauge
  • Metal band sawing machine
  • Go or no go gauge
  • Coordinate measuring machines CMM
  • Hand clamps
  • Scribers
  • Power drills
  • Laser printers
  • Grinders
  • Desktop computer
  • Personal computer
  • Power sanders
  • Computer aided design CAD software
    • Autodesk AutoCAD
    • Dassault Systemes SolidWorks
    • KCD cabinet design software
    • Kentech Kipware Studio
    • UGS Solid Edge
  • Video conferencing software
    • FaceTime
  • Computer aided manufacturing CAM software
    • 1CadCam Unigraphics
    • BobCAD-CAM
    • CGTech Vericut CNC
    • CNC Mastercam
    • Cadem CAPSMill
    • Cadem CAPSTurn
    • Cadem NCnet
    • Cadem seeNC Mill
    • DP Technology ESPRIT
    • Dassault Systemes CATIA
    • Delcam PowerMILL
    • Direct motion computer numerically controlled CNC software
    • EZ-CAM
    • ExtraTech Machine Tools Suite
    • FlashCut CNC
    • HOMAG WoodWOP
    • IMSI TurboCAD
    • JETCAM
    • Kentech Kipware M CNC
    • Kentech Kipware T CNC
    • Kentech Kipware X CNC
    • Kentech machine shop software
    • MDSI OpenCNC
    • Mastercam computer-aided design and manufacturing software
    • PTC Creo Parametric
    • PartMaker SwissCAM
    • Predator DNC
    • SigmaTEK SigmaNEST
    • SmartCAMcnc SmartCAM
    • TekSoft CAMWorks
    • Vero International VISI-Series
    • Vero Software Edgecam
    • Vero Software SURFCAM
    • Virtual Gibbs CADD/CAM
  • Industrial control software
    • EditCNC
    • Supervisory control and data acquisition SCADA software
    • Work inspection software
  • Enterprise resource planning ERP software
    • ERP software
    • SAP software
  • Object or component oriented development software
    • G-code
    • M-code
  • Analytical or scientific software
    • CNC Consulting Machinists' Calculator
    • Kentech Kipware Trig Kalculator
  • Spreadsheet software
    • Microsoft Excel
  • Electronic mail software
    • Microsoft Outlook
  • Development environment software
    • MUMPS M
  • Desktop communications software
    • Eko
  • Office suite software
    • Microsoft Office software
  • Word processing software
    • Microsoft Word
  • Presentation software
    • Microsoft PowerPoint
  • Project management software
    • Microsoft Project
  • Information retrieval or search software
    • Kentech PROTALK

The O*NET database contains a rich set of variables that describe work and worker characteristics, including skill requirements.

Occupation data (titles, sample titles, descriptions, daily work activities, knowledge, skills, abilities, tasks, related occupations, technologies and tools, and work values) come from the O*NET 29.0 Database (www.onetcenter.org/database.html) by the U.S. Department of Labor, Employment and Training Administration (USDOL/ETA). Used under the CC BY 4.0 (creativecommons.org/licenses/by/4.0/) license. O*NET® is a trademark of USDOL/ETA. Current as of October 2024.

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Employment Industries for Computer Numerically Controlled Tool Operators

  • Machine shops
    28,700 employed
  • Fabricated metal product manufacturing (3321,2,5,6,9)
    17,800 employed
  • Machinery manufacturing (3331,2,4,9)
    17,200 employed
  • Aerospace product and parts manufacturing
    14,000 employed
  • Metalworking machinery manufacturing
    12,200 employed
  • Motor vehicle parts manufacturing
    10,000 employed
  • Turned product and screw, nut, and bolt manufacturing
    7,700 employed
  • Fabricated metal product manufacturing (3323,4)
    7,200 employed
  • Medical equipment and supplies manufacturing
    4,900 employed
  • Plastics product manufacturing
    4,700 employed

The O*NET database contains a rich set of variables that describe work and worker characteristics, including skill requirements.

Occupation data (titles, sample titles, descriptions, daily work activities, knowledge, skills, abilities, tasks, related occupations, technologies and tools, and work values) come from the O*NET 29.0 Database (www.onetcenter.org/database.html) by the U.S. Department of Labor, Employment and Training Administration (USDOL/ETA). Used under the CC BY 4.0 (creativecommons.org/licenses/by/4.0/) license. O*NET® is a trademark of USDOL/ETA. Current as of October 2024.

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Career Information Datasources for Computer Numerically Controlled Tool Operators

Paying for College

Lake Superior College$5,931LSC IceHawks Logo 
Minnesota State Colleges$6,444 
Minnesota State Universities$10,643 
University of Minnesota$14,928 
Minnesota Private Colleges and Universities$44,928
*Based on average 2025-26 tuition and fees. For the exact costs, contact the institution that interests you. Does not include room and board.

Program Participation Requirements

Pre-Program Requirements

Successful entry into this program requires a specific level of skill in the areas of English and reading. Program entry will depend, in part, on meeting the prerequisites listed below:

English/Reading:

  • Eligible for ENGL/READ 0955 Read/Write College Prep: Advanced, OR
  • Completion of ENGL/READ 0950 or 0955 (or equivalent course or higher). ENGL/READ 0950 may be taken concurrently with Semester I coursework.

Mathematics:

  • A score of 250 or higher on the Arithmetic portion of the Accuplacer or equivalent.

There are other ways to qualify. Visit Course Placement to find out more.

Course Title Credits
Semester 1
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INMG 1400 Introduction to Manufacturing Technology

This course covers the beginning introduction use of tools used in manufacturing such as saws, drill press, engine lathes, and milling machines. (Prerequisites: None) (2 hrs lec/4 hrs lab/0 hrs OJT)

INMG 1400
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INMG 1400 Introduction to Manufacturing Technology

This course covers the beginning introduction use of tools used in manufacturing such as saws, drill press, engine lathes, and milling machines. (Prerequisites: None) (2 hrs lec/4 hrs lab/0 hrs OJT)

Introduction to Manufacturing Technology
4
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INMG 1410 Mechanical Print Reading

This course covers mechanical print reading principles. Topics included are sketching, lines, views, multiview drawings, scaling, dimensioning, tolerancing, and symbols. (Prerequisites: (ENGL0950 or ENGL0955 or READ0950 or READ0955, or equivalent, or 78 or higher on the reading comprehension portion of the CPT; and MATH0520; or concurrent) (3 hrs lec/0 hrs lab/0 hrs OJT)

INMG 1410*
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INMG 1410 Mechanical Print Reading

This course covers mechanical print reading principles. Topics included are sketching, lines, views, multiview drawings, scaling, dimensioning, tolerancing, and symbols. (Prerequisites: (ENGL0950 or ENGL0955 or READ0950 or READ0955, or equivalent, or 78 or higher on the reading comprehension portion of the CPT; and MATH0520; or concurrent) (3 hrs lec/0 hrs lab/0 hrs OJT)

Mechanical Print Reading
3
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MTCC 2501 CNC 2 Axis Turning Operations

This course covers 2 axis CNC turning setup and operations in a lab setting. Topics covered include setup and production techniques. (Prerequisite: MTCC1620) (1 hr lec/4 hrs lab/0 hrs OJT)

MTCC 2501*
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MTCC 2501 CNC 2 Axis Turning Operations

This course covers 2 axis CNC turning setup and operations in a lab setting. Topics covered include setup and production techniques. (Prerequisite: MTCC1620) (1 hr lec/4 hrs lab/0 hrs OJT)

CNC 2 Axis Turning Operations
3
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MTCC 2541 CNC 3 Axis Milling Operations

This course covers advanced CNC milling setup and operations in a lab setting. Topics covered include setup and production techniques. (Prerequisite: MTCC1620) (1 hr lec/4 hrs lab/0 hrs OJT)

MTCC 2541*
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MTCC 2541 CNC 3 Axis Milling Operations

This course covers advanced CNC milling setup and operations in a lab setting. Topics covered include setup and production techniques. (Prerequisite: MTCC1620) (1 hr lec/4 hrs lab/0 hrs OJT)

CNC 3 Axis Milling Operations
3
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MTCC 2564 CNC Horizontal 4 Axis

This course covers the advanced running and programming of 4 axis horizontal machining center with a pallet changer. Set-up of tombstones on the pallets will be covered with multiple parts programmed at once. (Prerequisites: MTCC2560) (0 hrs lec/6 hrs lab/0 hrs OJT)

MTCC 2564*
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MTCC 2564 CNC Horizontal 4 Axis

This course covers the advanced running and programming of 4 axis horizontal machining center with a pallet changer. Set-up of tombstones on the pallets will be covered with multiple parts programmed at once. (Prerequisites: MTCC2560) (0 hrs lec/6 hrs lab/0 hrs OJT)

CNC Horizontal 4 Axis
3
Semester 2
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INMG 1412 Advanced Mechanical Blueprint Reading

This course would cover advanced blueprint reading activities. Geometric Dimensioning and Tolerancing will be covered in more depth. (Prerequisites: INMG1410) (3 hrs lec/0 hrs lab/0 hrs OJT)

INMG 1412
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INMG 1412 Advanced Mechanical Blueprint Reading

This course would cover advanced blueprint reading activities. Geometric Dimensioning and Tolerancing will be covered in more depth. (Prerequisites: INMG1410) (3 hrs lec/0 hrs lab/0 hrs OJT)

Advanced Mechanical Blueprint Reading
3
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MTCC 1432 Quality Methods

This course covers the use of advanced inspection tools used in manufacturing. Statistical Process Control (SPC) is covered and demonstrated. (Prerequisites: INMG 1400) (1 hr lec/2 hrs lab/0 hrs OJT)

MTCC 1432*
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MTCC 1432 Quality Methods

This course covers the use of advanced inspection tools used in manufacturing. Statistical Process Control (SPC) is covered and demonstrated. (Prerequisites: INMG 1400) (1 hr lec/2 hrs lab/0 hrs OJT)

Quality Methods
2
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MTCC 1600 Engineering Materials

This course covers heat-treating concepts, procedures and methods. Secondary operations like plating, anodizing and other coatings. Machinability, properties and identification methods of both ferrous and non-ferrous materials are also covered. (Prerequisites: None) (1 hr lec/0 hrs lab/0 hrs OJT)

MTCC 1600
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MTCC 1600 Engineering Materials

This course covers heat-treating concepts, procedures and methods. Secondary operations like plating, anodizing and other coatings. Machinability, properties and identification methods of both ferrous and non-ferrous materials are also covered. (Prerequisites: None) (1 hr lec/0 hrs lab/0 hrs OJT)

Engineering Materials
1
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MTCC 1620 CNC Basic Programming

This course focuses on both turning and machining center programming for Computer Numerical Control (CNCs). Basic CNC concepts will be covered in depth. (Prerequisites: None) (2 hrs lec/0 hrs lab/0 hrs OJT)

MTCC 1620
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MTCC 1620 CNC Basic Programming

This course focuses on both turning and machining center programming for Computer Numerical Control (CNCs). Basic CNC concepts will be covered in depth. (Prerequisites: None) (2 hrs lec/0 hrs lab/0 hrs OJT)

CNC Basic Programming
2
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MTCC 2500 CNC Mill Conversational

This course covers basic CNC milling operations and programming in a lab setting. Topics covered include Conversational programming techniques. (Prerequisites: MTCC1620) (0 hrs lec/4 hrs lab/0 hrs OJT)

MTCC 2500*
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MTCC 2500 CNC Mill Conversational

This course covers basic CNC milling operations and programming in a lab setting. Topics covered include Conversational programming techniques. (Prerequisites: MTCC1620) (0 hrs lec/4 hrs lab/0 hrs OJT)

CNC Mill Conversational
2
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MTCC 2561 CNC Multi-Axis Milling Operations

This course covers advanced CNC multi-axis milling setup and operations in a lab setting. Topics covered include advanced setup and production techniques. (Prerequisite: MTCC1620) (1 hr lec/4 hrs lab/0 hrs OJT)

MTCC 2561*
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MTCC 2561 CNC Multi-Axis Milling Operations

This course covers advanced CNC multi-axis milling setup and operations in a lab setting. Topics covered include advanced setup and production techniques. (Prerequisite: MTCC1620) (1 hr lec/4 hrs lab/0 hrs OJT)

CNC Multi-Axis Milling Operations
3
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MTCC 2563 CNC Multi-Axis Turning Operations

This course covers CNC multi-axis turning setup and operations in a lab setting. Topics covered include advanced setup and production techniques. (Prerequisite: MTCC1620) (1 hr lec/4 hrs lab/0 hrs OJT)

MTCC 2563*
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MTCC 2563 CNC Multi-Axis Turning Operations

This course covers CNC multi-axis turning setup and operations in a lab setting. Topics covered include advanced setup and production techniques. (Prerequisite: MTCC1620) (1 hr lec/4 hrs lab/0 hrs OJT)

CNC Multi-Axis Turning Operations
3
Total: 32

*Requires a prerequisite or instructor’s consent

Program Outcomes

  • Safely and effectively operate both manual and CNC machines.
  • Understand and interpret technical drawings, including GD & T
  • Understand and modify basic G-code for CNC machines.
  • Troubleshoot CNC machines.
  • Use precision measurement tools to inspect parts.
  • Understand basic manufacturing processes and practices.
  • Setup CNC machine for production part runs.
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