Blackboard   |   BannerWeb   |   Student Email   |   Student Help Desk Staff / Faculty Email   |   Intranet   |   Sharepoint
Logo,Apply Now, Request Info Home Page - Lanier Technical CollegeApply NowRequest Information
Skip Navigation LinksHome Page > Academic Programs > Precision Machining and Manufacturing

Precision Machining & Manufacturing
Course Schedule   |   Financial Aid   |   Tuition
  The Precision Machining & Manufacturing program is a sequence of courses that prepare students for careers in the machine tool technology field. Learning opportunities develop academic, technical, and professional knowledge and skills required for job acquisition, retention, and advancement. The program emphasizes a combination of machine tool theory and practical application necessary for successful employment.

Precision Machining and Manufacturing is the new name of the former Machine Tool Technology program.
Program Requirements  

Sample Graduation Plans
Apply Now!
Frequently Asked Questions

When are new students accepted into the Precision Machining & Manufacturing Program?
Students are accepted into the Precision Machining & Manufacturing Program every quarter.  Prospective students may view the school calendar or contact the Admissions office for the registration dates.

What times of the day are classes offered?
Classes are typically offered from 8:00 am to 2:00 pm and 5:00 pm to 10:00 pm Monday thru Thursday.  Class schedules are published several weeks prior to registration for each new quarter.

Do I have to attend full-time?
No.  In order to be considered full-time, a student must register for at least 12 credit hours.  The Precision Machining & Manufacturing Program allows students to register for only one class or 3-4 classes depending on the individual needs of the student.

What textbooks are required in the Precision Machining & Manufacturing Program?
Several textbooks and workbooks are required for the different courses within the Precision Machining & Manufacturing program of study.  Whenever practical a text or work book is used for more than one course, for example: Machine Tool Math I and Machine Tool Math II use the same textbook.
For information on the text book for a particular course, follow the Faculty and Staff link to find the current course sections, then click on the textbook link.

What tools and materials are required for the Precision Machining & Manufacturing Program?
The Precision Machining & Manufacturing Department supplies all materials and tools needed to complete the shop projects.  Students do need to provide safety glasses, all of the normal school items (pencil, paper, loose leaf notebook, etc.), and most students find a hand held scientific calculator useful.
Although all of the shop tools are provided by the school, many students begin to purchase some personal tools during their time in the program.

Additional Information on the
Precision Machining & Manufacturing Program

Click (+) on the following topics for more information:
Significant Points [+]

  • Machinists learn their job skills in apprenticeship programs, informally on the job, in vocational high schools, and in community or technical colleges.
  • Many entrants previously have worked as machine setters, operators, or tenders.
  • Job opportunities are expected to be good.

  • Program Instructors [+]

      Thomas Morris  
      Precision Machining & Manufacturing Instructor/Program Director
      Hall Campus
      Phone: (770) 533-6952

    Nature of the Work [+]

    Machinists use machine tools, such as lathes, milling machines, and grinders, to produce precision metal parts. Although they may produce large quantities of one part, precision machinists often produce small batches or one-of-a-kind items. They use their knowledge of the working properties of metals and their skill with machine tools to plan and carry out the operations needed to make machined products that meet precise specifications. The parts that machinists make range from bolts to automobile pistons.

    Machinists first review electronic or written blueprints or specifications for a job before they machine a part. Next, they calculate where to cut or bore into the workpiece—the piece of steel, aluminum, titanium, plastic, silicon, or any other material that is being shaped. They determine how fast to feed the workpiece into the machine and how much material to remove. They then select tools and materials for the job, plan the sequence of cutting and finishing operations, and mark the workpiece to show where cuts should be made.

    After this layout work is completed, machinists perform the necessary machining operations. They position the workpiece on the machine tool—drill press, lathe, milling machine, or other type of machine—set the controls, and make the cuts. During the machining process, they must constantly monitor the feed rate and speed of the machine. Machinists also ensure that the workpiece is properly lubricated and cooled, because the machining of metal products generates a significant amount of heat. The temperature of the workpiece is a key concern, because most metals expand when heated; machinists must adjust the size of their cuts relative to the temperature.

    During the cutting process, machinists detect problems by listening for specific sounds—for example, that of a dull cutting tool or excessive vibration. Dull cutting tools are removed and replaced. Cutting speeds are adjusted to compensate for harmonic vibrations, which can decrease the accuracy of cuts, particularly on newer high-speed spindles and lathes. After the work is completed, machinists use both simple and highly sophisticated measuring tools to check the accuracy of their work against the blueprints.

    Some machinists, often called production machinists, may produce large quantities of one part, especially parts requiring the use of complex operations and great precision. Many modern machine tools are computer numerically controlled (CNC). CNC machines, following a computer program, control the cutting tool speed, change dull tools, and perform all necessary cuts to create a part. Frequently, machinists work with computer control programmers to determine how the automated equipment will cut a part. The machinist determines the cutting path, speed of the cut and the feed rate, and the programmer converts path, speed, and feed information into a set of instructions for the CNC machine tool. Many machinists must be able to use both manual and computer-controlled machinery in their job.

    Because most machinists train in CNC programming, they may write basic programs themselves and often modify programs in response to problems encountered during test runs. Modifications, called offsets, not only fix problems, but they also improve efficiency by reducing manufacturing time and tool wear. After the production process is designed, computer control operators implement it by performing relatively simple and repetitive operations.

    Some manufacturing techniques employ automated parts loaders, automatic tool changers, and computer controls, allowing machines to operate without anyone present. One production machinist, working 8 hours a day, might monitor equipment, replace worn cutting tools, check the accuracy of parts being produced, adjust offsets, and perform other tasks on several CNC machines that operate 24 hours a day. In the off-hours, during what is known as “lights out manufacturing,” which is the practice of running machines while the operators are not present, a factory may need only a few workers to monitor the entire factory.

    Maintenance machinists repair or make new parts for existing machinery. After an industrial machinery mechanic or maintenance worker discovers the broken part of a machine, they give the broken part to the machinist. To replace broken parts, maintenance machinists refer to blueprints and perform the same machining operations that were needed to create the original part. While production machinists are concentrated in a few industries, maintenance machinists work in many manufacturing industries.

    Because the technology of machining is changing rapidly, machinists must learn to operate a wide range of machines. Some newer machines use lasers, water jets, or electrified wires to cut the workpiece. While some of the computer controls are similar to other machine tools, machinists must understand the unique cutting properties of these different machines. As engineers create new types of machine tools and new materials to machine, machinists must constantly learn new machining properties and techniques.

    Work Environment [+]

    Today, many machine shops are relatively clean, well lit, and ventilated. Computer-controlled machines often are partially or totally enclosed, minimizing the exposure of workers to noise, debris, and the lubricants used to cool workpieces during machining. Nevertheless, working around machine tools presents certain dangers, and workers must follow safety precautions. Machinists wear protective equipment, such as safety glasses to shield against bits of flying metal, and earplugs to dampen machinery noise. They also must exercise caution when handling hazardous coolants and lubricants, although many common water-based lubricants present little hazard. The job requires stamina, because machinists stand most of the day and, at times, may need to lift moderately heavy workpieces. Modern factories use autoloaders and overhead cranes to reduce heavy lifting.

    Many machinists work a 40-hour week. Evening and weekend shifts are becoming more common, as companies extend hours of operation to make better use of expensive machines. However, this trend is somewhat offset by lights-out manufacturing that uses fewer machinists and the use of machine operators for less desirable shifts. Overtime work is common during peak production periods.

    Training, Other Qualifications, and Advancement [+]

    Machinists train in apprenticeship programs, vocational schools, or community or technical colleges, or informally on the job. Many entrants previously have worked as machine setters, operators, or tenders.

    Education and training. There are many different ways to become a skilled machinist. Many entrants previously have worked as machine setters, operators, or tenders. In high school, students should take math courses, especially trigonometry and geometry and, if available, courses in blueprint reading, metalworking, and drafting. Some advanced positions, such as those in the aircraft manufacturing industry, require the use of advanced applied calculus and physics. Due to the increasing use of computer controlled machinery, basic computer skills are needed before entering a training program. After high school, some machinists learn entirely on the job, but most acquire their skills in a mix of classroom and on-the-job training. Formal apprenticeship programs, typically sponsored by a union or manufacturer, are an excellent way to learn the job of machinist, but are often hard to get into. Apprentices usually must have a high school diploma, GED, or the equivalent; and most have taken algebra and trigonometry classes.

    Apprenticeship programs consist of paid shop training and related classroom instruction lasting up to 4 years. In shop training, apprentices work almost full time and are supervised by an experienced machinist, while learning to operate various machine tools. Classroom instruction includes math, physics, materials science, blueprint reading, mechanical drawing, and quality and safety practices. In addition, as machine shops have increased their use of computer-controlled equipment, training in the operation and programming of CNC machine tools has become essential. Apprenticeship classes are often taught in cooperation with local community colleges or vocational-technical schools. A growing number of machinists are learning the trade through 2-year associate degree programs at community or technical colleges. Graduates of these programs still need significant on-the-job experience as machinists’ assistants before they are fully qualified.

    Other qualifications. People interested in becoming machinists should be mechanically inclined, have good problem-solving abilities, be able to work independently, and be able to do highly accurate work (tolerances may reach 50/1,000,000ths of an inch) that requires concentration and physical effort. Experience working with machine tools is helpful. In fact, many entrants have worked as machine setters, operators, or tenders.

    To boost the skill level of machinists and to create a more uniform standard of competency, a number of training facilities, State apprenticeship boards, and colleges offer certification programs. Completing a recognized certification program provides a machinist with better career opportunities and helps employers better judge the abilities of new hires. Journeyworker certification can be obtained from State apprenticeship boards after completing an apprenticeship; this certification is recognized by many employers and often leads to better career opportunities.

    As new automation is introduced, machinists normally receive additional training to update their skills. This training usually is provided by a representative of the equipment manufacturer or a local technical school. Some employers offer tuition reimbursement for job-related courses.

    Certification and advancement. Machinists can advance in several ways. Experienced machinists may become CNC programmers, tool and die makers, or mold makers, or be promoted to supervisory or administrative positions in their firms. A few open their own machine shops.

    Job Outlook [+]

    Job opportunities for machinists should continue to be good, as employers value the wide-ranging skills of these workers. Also, many young people with the necessary educational and personal qualifications needed to become machinists prefer to attend college or may not wish to enter production occupations. Therefore, the number of workers learning to be machinists is expected to be less than the number of job openings arising each year from the need to replace experienced machinists who retire or transfer to other occupations.

    Employment change. Tool and die makers play a key role in building and maintaining advanced automated manufacturing equipment, which makes them less susceptible to lay-offs from automation than other less skilled production workers. As firms invest in new equipment, modify production techniques, and implement product design changes more rapidly, they will continue to rely heavily on skilled tool and die makers for retooling.

    Campuses / Contact Us / Directions

    © 2018 Lanier Technical College
    Effective Dec. 3, 2018, Lanier Technical College's address will be: 2535 Lanier Tech Drive, Gainesville, GA 30507
    Phone: 770-533-7000 | Fax: 770-531-6328
    A Unit of the Technical College System of Georgia

    An Equal Opportunity Institution | Disability Services | National Human Trafficking Resource Center