Manufacturing Engineers are responsible for handling and developing an efficient manufacturing system or procedure that will help a company produce up to standard products while in adherence to the policies, regulations, and expected cost and schedule. Furthermore, Manufacturing Engineers must also monitor quality control, identify or detect errors, provide and suggest improvements, oversee the procurement of materials involved in the production, and coordinate with various teams or departments within the company to ensure the effectiveness of innovations or new developments.

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Manufacturing Engineer Responsibilities

Here are examples of responsibilities from real manufacturing engineer resumes representing typical tasks they are likely to perform in their roles.

  • Achieve 6 sigma process capability on a key manufacturing resource utilizing SPC and DFM principles.
  • Manage facility maintenance and repairs covering HVAC, plumbing, electric, chillers, and equipment maintenance and repairs.
  • Manage implementation of improve paste compounding (including extrusion) process.
  • Lead several independent, cross-functional projects and improve manufacturing quality, reduce cost, ensure environment are supported and FDA compliant.
  • Create process flows and PFMEA's for encapsulate, bonding, and assembly processes.
  • Develop equipment specifications to optimize OEE and meet quality standards with input from advance quality engineers and design team.
  • Provide statistical process control (SPC), process capability studies and statistical analysis support to manufacturing and engineering departments.
  • Direct engineering activities from concept through production for aerospace, automotive, OEM industrial and military government new product development programs.
  • Plan and coordinate KANBAN material systems.
  • Work with a team on six sigma projects.
  • Install KANBAN system for all machining components and assembly.
  • Mentore several AME co-ops during their school rotation while at GE.
  • Assist in implementation of KANBAN and KAIZEN programs in the manufacturing area.
  • Lead AME on the European noise program, to lower the decibels from approx.
  • Design lean methods, PFMEA, for processes and transfer to Europe manufacturing site.

Manufacturing Engineer Job Description

Between the years 2018 and 2028, manufacturing engineer jobs are expected to undergo a growth rate described as "faster than average" at 8%, according to the Bureau of Labor Statistics. So if the thought "should I become a manufacturing engineer?" Has crossed your mind, maybe you should take the growth rate into account. In addition, the number of manufacturing engineer opportunities that are projected to become available by 2028 is 23,800.

A manufacturing engineer annual salary averages $78,522, which breaks down to $37.75 an hour. However, manufacturing engineers can earn anywhere from upwards of $60,000 to $102,000 a year. This means that the top-earning manufacturing engineers make $41,000 more than the lowest-earning ones.

Once you've become a manufacturing engineer, you may be curious about what other opportunities are out there. Careers aren't one size fits all. For that reason, we discovered some other jobs that you may find appealing. Some jobs you might find interesting include a research and development engineer, tool engineer, product development engineer, and development engineer.

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Manufacturing Engineer Skills and Personality Traits

We calculated that 9% of Manufacturing Engineers are proficient in Lean Manufacturing, CAD, and Solidworks. They’re also known for soft skills such as Speaking skills, Writing skills, and Creativity.

We break down the percentage of Manufacturing Engineers that have these skills listed on their resume here:

  • Lean Manufacturing, 9%

    Overhauled and implemented lean manufacturing processes and procedures resulting in increased production and efficiency resulting in the doubling of overall production.

  • CAD, 6%

    Improved critical operations by developing detailed work instructions and procedures, using CAD model illustrations for greater clarity.

  • Solidworks, 4%

    Operated CADKEY and SolidWorks design software to increase manufacturing and quality of mechanical products by utilizing advanced designs.

  • Sigma, 4%

    Contributed to the Caterpillar Quality Management System Certification by performing internal audit and coordinating a Six Sigma Black Belt project.

  • Project Management, 4%

    Led project management in the planning and implementation of quality improvements, cost reductions, capacity increases, and productivity enhancements.

  • CNC, 4%

    Determined manufacturing requirements and quality assurance measures through to use of operational process planning drawings and inspection reports for CNC machined components

Some of the skills we found on manufacturing engineer resumes included "lean manufacturing," "cad," and "solidworks." We have detailed the most important manufacturing engineer responsibilities below.

  • Speaking skills can be considered to be the most important personality trait for a manufacturing engineer to have. According to a manufacturing engineer resume, "industrial engineers sometimes have to explain their instructions to production staff or technicians before they can make written instructions available" manufacturing engineers are able to use speaking skills in the following example we gathered from a resume: "addressed discrepancies with engineering drawings and implementation and installation. "
  • Another commonly found skill for being able to perform manufacturing engineer duties is the following: writing skills. According to a manufacturing engineer resume, "industrial engineers must prepare documentation for other engineers or scientists, or for future reference." Check out this example of how manufacturing engineers use writing skills: "supported iso quality system by writing work instructions, developing quality plans and resolving stop work, dmr and mrb issues. "
  • Another skill that is quite popular among manufacturing engineers is creativity. This skill is very critical to fulfilling every day responsibilities as is shown in this example from a manufacturing engineer resume: "industrial engineers use creativity and ingenuity to design new production processes in many kinds of settings in order to reduce the use of material resources, time, or labor while accomplishing the same goal." This example from a resume shows how this skill is used: "provided all production planning, inventory management and erp systems support. "
  • In order for certain manufacturing engineer responsibilities to be completed, the job requires the skill "listening skills." According to a manufacturing engineer resume, "these engineers often operate in teams, but they also must solicit feedback from customers, vendors, and production staff" As an example, this snippet was taken directly from a resume about how this skill applies: "communicated with design engineering and outside suppliers. "
  • Yet another important skill that a manufacturing engineer must demonstrate is "math skills." Industrial engineers use the principles of calculus, trigonometry, and other advanced topics in mathematics for analysis, design, and troubleshooting in their work. This is clearly demonstrated in this example from a manufacturing engineer who stated: "utilized cad along with gd&t; and blue print for dimension information and geometry. "
  • While "problem-solving skills" is listed last on this skills list, don't underestimate its importance to manufacturing engineer responsibilities. The skill is described by this resume snippet, "in designing facilities for manufacturing and processes for providing services, these engineers deal with several issues at once, from workers’ safety to quality assurance." Here is an example of how this skill is used, "developed erp solutions and developed implementation schedule. "
  • See the full list of manufacturing engineer skills.

    We've found that 73.4% of manufacturing engineers have earned a bachelor's degree. Furthermore, 9.1% earned their master's degrees before becoming a manufacturing engineer. While it's true that most manufacturing engineers have a college degree, it's generally possible to become one with only a high school degree. In fact, one out of every eight manufacturing engineers did not spend the extra money to attend college.

    The manufacturing engineers who went onto college to earn a more in-depth education generally studied mechanical engineering and industrial engineering, while a small population of manufacturing engineers studied electrical engineering and industrial technology.

    Once you're ready to become a manufacturing engineer, you should explore the companies that typically hire manufacturing engineers. According to manufacturing engineer resumes that we searched through, manufacturing engineers are hired the most by Tecomet, Stoughton Trailers, and Raymond. Currently, Tecomet has 181 manufacturing engineer job openings, while there are 141 at Stoughton Trailers and 131 at Raymond.

    If you're interested in companies where manufacturing engineers make the most money, you'll want to apply for positions at Meta, Apple, and Google. We found that at Meta, the average manufacturing engineer salary is $125,604. Whereas at Apple, manufacturing engineers earn roughly $124,513. And at Google, they make an average salary of $121,112.

    View more details on manufacturing engineer salaries across the United States.

    We also looked into companies who hire manufacturing engineers from the top 100 educational institutions in the U.S. The top three companies that hire the most from these institutions include Boeing, Lockheed Martin, and Caterpillar.

    In general, manufacturing engineers fulfill roles in the manufacturing and technology industries. While employment numbers are high in those industries, the manufacturing engineer annual salary is the highest in the technology industry with $81,429 as the average salary. Meanwhile, the automotive and health care industries pay $79,398 and $78,825 respectively. This means that manufacturing engineers who are employed in the technology industry make 6.5% more than manufacturing engineers who work in the professional Industry.

    The three companies that hire the most prestigious manufacturing engineers are:

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    What Research And Development Engineers Do

    Research and development engineers generally execute research and tests on product ideas, develop new products, and perform redesigns. They are employed in many industries, including manufacturing, electrical, and science-based companies. Their duties vary and depend on the industries they work in. Responsibilities of these engineers include developing new technologies, designing products, and managing the projects until they are completed. Additionally, they lead the project team members to manage their schedules, design the project plans, and collaborate with key departments in developing new products.

    We looked at the average manufacturing engineer annual salary and compared it with the average of a research and development engineer. Generally speaking, research and development engineers receive $21,647 higher pay than manufacturing engineers per year.

    While their salaries may differ, one common ground between manufacturing engineers and research and development engineers are a few of the skills required in each craft. In both careers, employees bring forth skills like cad, solidworks, and sigma.

    As far as similarities go, this is where it ends because a manufacturing engineer responsibility requires skills such as "lean manufacturing," "corrective action," "process control," and "troubleshoot." Whereas a research and development engineer is skilled in "python," "c #," "data analysis," and "patients." So if you're looking for what truly separates the two careers, you've found it.

    Research and development engineers receive the highest salaries in the technology industry coming in with an average yearly salary of $107,654. But manufacturing engineers are paid more in the technology industry with an average salary of $81,429.

    Research and development engineers tend to reach higher levels of education than manufacturing engineers. In fact, research and development engineers are 9.1% more likely to graduate with a Master's Degree and 3.6% more likely to have a Doctoral Degree.

    What Are The Duties Of a Tool Engineer?

    A tooling engineer is responsible for creating and adjusting tools or parts for cars, heavy equipment, and other products that need customized or personalized components. Your duties and responsibilities will include creating design blueprints, using computer-aided (CAD) software to develop two- and three-dimensional prints, and validating and evaluating products. As a tooling engineer, it is your responsibility to ensure compliance with operational standards such as the ISO 9000. You also have to provide technical assistance to manufacturing personnel and quality assurance.

    Next up, we have the tool engineer profession to look over. This career brings along a higher average salary when compared to a manufacturing engineer annual salary. In fact, tool engineers salary difference is $22,613 higher than the salary of manufacturing engineers per year.

    While the salary may be different for these job positions, there is one similarity and that's a few of the skills needed to perform certain duties. We used info from lots of resumes to find that both manufacturing engineers and tool engineers are known to have skills such as "lean manufacturing," "cad," and "solidworks. "

    In addition to the difference in salary, there are some other key differences that are worth noting. For example, manufacturing engineer responsibilities are more likely to require skills like "process control," "troubleshoot," "design engineering," and "engineering drawings." Meanwhile, a tool engineer might be skilled in areas such as "python," "java," "linux," and "jenkins." These differences highlight just how different the day-to-day in each role looks.

    On average, tool engineers earn a higher salary than manufacturing engineers. There are industries that support higher salaries in each profession respectively. Interestingly enough, tool engineers earn the most pay in the technology industry with an average salary of $94,406. Whereas, manufacturing engineers have higher paychecks in the technology industry where they earn an average of $81,429.

    When it comes to the differences in education between the two professions, tool engineers tend to reach similar levels of education than manufacturing engineers. In fact, they're 1.6% less likely to graduate with a Master's Degree and 3.6% more likely to earn a Doctoral Degree.

    What Technology Do You Think Will Become More Important And Prevalent For Manufacturing Engineers In The Next 3-5 Years?

    Jerry Leth

    VP/General Manager, MANA

    The current Covid-19 pandemic saw a huge surge in virtual meeting platforms. Your purpose as a salesperson needs to be to help your customers solve the problems they face, not to get orders. If they sense you want to help them rather than get them to buy something, they trust you and end up buying from you. Prior to Covid, salespeople created and maintained high-trust customer relationships through face-to-face meetings. That is not possible under the current environment, and salespeople rely more on connecting through LinkedIn and growing customer relationships through virtual meeting platforms. Following the pandemic, while face-to-face meetings return, the virtual meetings will continue to gain importance and relevance. Show more

    How a Product Development Engineer Compares

    A Product Development Engineer is responsible for creating and testing new product designs. They collaborate with market researchers to evaluate market needs, existing competition, and potential costs.

    The product development engineer profession generally makes a higher amount of money when compared to the average salary of manufacturing engineers. The difference in salaries is product development engineers making $7,553 higher than manufacturing engineers.

    By looking over several manufacturing engineers and product development engineers resumes, we found that both roles utilize similar skills, such as "lean manufacturing," "cad," and "solidworks." But beyond that the careers look very different.

    There are many key differences between these two careers as shown by resumes from each profession. Some of those differences include the skills required to complete responsibilities within each role. As an example of this, a manufacturing engineer is likely to be skilled in "process control," "troubleshoot," "lean six sigma," and "production processes," while a typical product development engineer is skilled in "data analysis," "prototype," "c++," and "fea."

    Interestingly enough, product development engineers earn the most pay in the technology industry, where they command an average salary of $86,062. As mentioned previously, manufacturing engineers highest annual salary comes from the technology industry with an average salary of $81,429.

    When it comes to education, product development engineers tend to earn higher education levels than manufacturing engineers. In fact, they're 6.2% more likely to earn a Master's Degree, and 1.3% more likely to graduate with a Doctoral Degree.

    Description Of a Development Engineer

    A Development Engineer is responsible for the development and validation of products, systems, and components. They are also responsible for quality control of work and continuous improvement of engineer activities.

    Development engineers tend to earn a higher pay than manufacturing engineers by about $14,684 per year.

    While their salaries may vary, manufacturing engineers and development engineers both use similar skills to perform their jobs. Resumes from both professions include skills like "cad," "solidworks," and "sigma. "

    While some skills are shared by these professions, there are some differences to note. "lean manufacturing," "corrective action," "process control," and "troubleshoot" are skills that have shown up on manufacturing engineers resumes. Additionally, development engineer uses skills like java, python, c #, and software development on their resumes.

    In general, development engineers make a higher salary in the technology industry with an average of $105,648. The highest manufacturing engineer annual salary stems from the technology industry.

    In general, development engineers reach higher levels of education when compared to manufacturing engineers resumes. Development engineers are 7.5% more likely to earn their Master's Degree and 2.3% more likely to graduate with a Doctoral Degree.

    What a Manufacturing Engineer Does FAQs

    Are Manufacturing Engineers In Demand?

    Yes, manufacturing engineers are in demand. The demand is expected to go up over the next ten years. The overall job outlook for manufacturing engineer careers has been positive since 2004.

    How To Calculate Applied Manufacturing Overhead

    To calculate applied manufacturing overhead, you must multiply the overhead allocation rate by the number of hours worked. For example, if the allocation rate is $25, and an employee works for 4 hours, the applied manufacturing overhead would be $100 because 25 x 4 = 100.

    How To Calculate Manufacturing Overhead

    To calculate manufacturing overhead, use this formula: Manufacturing Overhead Costs / Number of Sales x 100 = Percentage.

    To calculate manufacturing overhead, you first need to identify the manufacturing expenses in your business. These are known as indirect costs that help keep your manufacturing facility operating. All of your indirect costs should be added together. Now with this estimate of your manufacturing costs, the next step is to use the equation listed above.

    You add all of your manufacturing costs up or multiply the overhead cost per unit by the number of units your business manufactures.

    When you use this calculation and determine that your manufacturing overhead rate is low, this means that your business is operating effectively. The higher percentage indicates that your business production process is lagging.

    This calculation not only helps you run your business more efficiently and effectively but also is very important in terms of drawing up a budget. Knowing the amount of funds you need to have for your manufacturing overhead helps you develop a more accurate budget for your business.

    Here are some of the costs that should be factored into your overhead manufacturing budget:

    • Indirect labor. These costs are associated with employees of the company that don't directly participate in the manufacturing of one of your products. This can include personnel like janitors, security guards, machine technicians, plant managers, supervisors, and quality control inspectors.

      All of these employees' salaries are part of your indirect labor costs. You should track the time and pay of these employees.

    • Indirect materials. These costs refer to materials used in manufacturing but are not designated to a specific product. These are mostly going to apply to consumable materials, like lubricants for your machines, light bulbs, and cleaning supplies.

      These costs should be spread out over your entire inventory since they are too difficult to keep track of their use.

    • Utilities. Utility costs can be difficult to calculate because they often fluctuate due to a number of manufacturing factors. This means that water, electricity, and gas are overhead costs, but they do not count as a constant.

      There are times when you will need more use of them, and times you will need less use of them, depending on the consumer demand for your specific product or products.

      Because this is the case, you can recognize these are variable overhead costs. They should be calculated for your whole manufacturing plant and any sub-buildings, and then dispersed over your entire product inventory.

    • Physical costs. These costs are determined by the straight-line method or the declining balance method. The straight-line method disperses the load amount of fixed assets equally across their use-life. The declining balance method uses a constant rate of lowering applied to the assets' overall book value each year.

    • Financial costs. These are money-related overhead costs that can not be canceled or avoided. These include items like property taxes that the government charges on your manufacturing plant, insurance policies, and any legal fees you might accrue.

      For the most part, these financial costs are constant and won't change, so you can allocate them across your entire product inventory.

    How To Find The Total Manufacturing Cost

    To find the total manufacturing cost, you must add together the cost categories of direct materials, direct labor, and manufacturing overhead.

    Here is the total manufacturing cost in formula form:

    Total Manufacturing Cost = Direct Materials + Direct Labor + Manufacturing Overhead

    Total manufacturing costs relate to the total expenses spent on all resources used in the process of developing and creating a finished product.

    To get an accurate calculation of your company's total manufacturing costs you must look at the different departments in your company and identify how they contribute to the manufacturing procedures and processes, and the costs associated with those.

    Here is a quick breakdown of the three main variables in the total manufacturing cost formula:

    • Direct Materials. This refers to the total cost of materials purchased for a given period, you must add this total to the cost of beginning inventory, and then take away the cost of ending inventory. This will provide you with an accurate direct materials cost for a given period.

    • Direct Labor. You need to evaluate and calculate all of your direct labor costs used in the manufacturing process for the period. This includes the salaries and wages of your workers, as well as any payroll taxes.

    • Manufacturing Overhead. This cost is determined by combining the costs of all plant and production overhead for a given period. This includes costs like lease fees, rent, mortgages, repairs and maintenance expenses, and any depreciation of your facility or its equipment.

    Is Manufacturing Engineering A Good Career?

    Yes, being a manufacturing engineer is a good career. Manufacturing engineering is a well-paying, well-regarded job with a strong career outlook.

    It is a promising career if you enjoy a challenging work environment with individual project work and team interaction. Manufacturing engineers have a high level of career satisfaction and generally stay in the profession long-term.

    What Is A Manufacturing Engineering Degree?

    A manufacturing engineering degree is the study of the design, implementation, and use of manufacturing equipment. In this degree, a person will learn to use the latest technologies and processes of manufacturing.

    What Is Additive Manufacturing?

    Additive manufacturing is the system and process of creating an object by constructing it one piece, or layer, at a time.

    This is the direct opposite of subtractive manufacturing which refers to the creation of an object by cutting away or eliminating a solid portion of the object's material to produce a final product.

    In the modern era, additive manufacturing usually refers to the process of 3-D printing; however, it might also refer to more analog processes, such as molding.

    To create an object or product using additive manufacturing, a professional must first complete a blueprint or design for the object or product. Generally, this is accomplished by utilizing software programs, such as ones involving CAD. It can also involve taking scans of the object an individual wants to print.

    Computer software then allows the user to translate the object into a layer-by-layer framework that an additive manufacturing device can adhere to. Once this information is sent to a 3-D printer, the printer commences creating the object right away.

    Additive manufacturing can actually be accomplished in several different ways. It can take several hours or even several days to complete, depending on the complexity and size of the object.

    Additive manufacturing has many advantages over traditional manufacturing methods. Traditional manufacturing can take many months and requires a considerable investment, while additive manufacturing removes many of the supply chain's intermediate steps.

    You can also use multiple different materials to create an object with additive manufacturing. Two of the biggest advantages of additive manufacturing are the ability to create complex geometries and produce small lot sizes. Since you produce layer by layer, you can incorporate nearly any geometry you like into an object.

    What Is Manufacturing Engineering?

    Manufacturing engineering is a type of engineering involved in the development, operation, and maintenance of manufacturing systems.

    Manufacturing engineers are tasked with providing knowledge, services, and guidance on the best technologies and processing to manufacture a specific product. They might also help design the manufacturing facility or factory where the product is to be created and streamlined.

    Manufacturing engineering does overlap with different forms of engineering, including:

    • Mechanical engineering

    • Industrial engineering

    • Electrical engineering

    While it does involve these other engineering disciplines, manufacturing engineering is a specific type of engineering that involves specific skills and educational backgrounds.

    Here are some common duties of a manufacturing engineer:

    • Designing new manufacturing systems for the production of a product or products

    • Finding strengths and weaknesses of existing manufacturing systems and processes

    • Developing prototypes

    • Conducting cost analysis along with financial teams

    • Overseeing and managing inventory control

    What Qualifications Do You Need To Be A Manufacturing Engineer?

    The qualifications needed to become a manufacturing engineer is at least a bachelor's degree. Students who wish to become manufacturing engineers typically pursue degrees in manufacturing engineering or related engineering fields of study.

    Why Is Manufacturing Important?

    Manufacturing is important for many reasons. One of the main reasons manufacturing is important is because it is key to spurring innovations and seeing new ideas realized. Manufacturing is a vital part of the US and global economies; so many industries use it, and society would advance much slower without it.

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