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Manufacturing Engineer Career Guide

What is a manufacturing engineer?

A manufacturing engineer develops, designs, and implements production processes on the factory floor. Their primary aim is to reduce production costs and increase the quality of the products being developed. Often, they will collaborate directly with other departments, such as design and procurement, to optimize operations. The design inputs from design engineers are transformed into viable manufacturing plans by these professionals.

Their role is instrumental in creating efficient and cost-effective production systems. It’s a job that greatly impacts business profitability, as any increases in efficiency or lower production costs directly improve the bottom line. In addition, the manufacturing engineering function is essential in maintaining product quality, as the design and control of the manufacturing processes directly influence the quality of products that reach customers.

Duties and responsibilities

The main duty of the manufacturing engineer is creating, implementing, and monitoring the manufacturing process. They are often in charge of designing the machinery, equipment, and tools used in the procedure. This responsibility ties into their role of observing the manufacturing process, troubleshooting issues, and continuously improving it. Frequently, they will analyze the manufacturing processes to identify areas for improvement and cost reduction.

In addition to designing and implementing new procedures, they also conduct tests and set specifications for production. Tasks can range from testing new machinery to setting standards for quality control. They also often help to train employees on the manufacturing floor, providing instructions for new processes or technologies. Computer-aided design (CAD) and computer-aided manufacturing (CAM) software knowledge are also often a major part of their day-to-day responsibilities.

Work environment

Manufacturing engineers usually work at production sites or manufacturing facilities, where they can closely monitor the processes they are responsible for optimizing. These settings can be loud or hectic, as they operate in areas with heavy machinery and a swift workforce. However, office or design lab time is often required for the analysis, design, and planning phases. These professionals need to be comfortable working in a dynamic, hands-on setting, and interacting with various teams within the organization, from production workers to design engineers and management.

Typical work hours

Typically, manufacturing engineers work full-time, around 40 hours per week. However, this can vary depending on the organization and the specific production processes they oversee. For instance, work hours might be extended or shifted in cases where the production runs around the clock or in shifts, as they might be needed on-site to monitor or address any issues. Occasionally, overtime might be required to meet project deadlines or address emerging problems.


How to become a manufacturing engineer

This career guide section outlines the process of becoming a manufacturing engineer. The key steps in this career path include a strong academic background in engineering, earning important certifications, gaining hands-on experience, and continuous learning and development.

Step 1: Graduate from high school

Completing high school or gaining an equivalent qualification, such as a GED, is the first step. High school coursework should include advanced classes in math, sciences, specifically physics, and computer sciences to build a strong foundation for the rigorous university engineering courses.

Step 2: Obtain a bachelor’s degree

A bachelor’s degree in manufacturing engineering, mechanical engineering, or a related engineering field is typically needed to start a career as a manufacturing engineer. Courses usually include topics in manufacturing processes, materials science, physics, thermodynamics, and even business management. These equip students with the essential knowledge and skills required in the manufacturing industry.

Step 3: Complete internships

Throughout your university education, completing internships in manufacturing or engineering companies is highly beneficial. An internship allows you to gain real-world experience, apply what you have learned, and gain a better understanding of the realities of a career in manufacturing engineering.

Step 4: Gain professional experience

After graduation, the first few years of your career should be focused on gaining practical, on-the-job experience. These professionals often start off as junior engineers, where they will be supervised by more experienced engineers and gradually be given more responsibilities as they gain experience and confidence.

Step 5: Obtain a PE license

While not required by all employers, obtaining a Professional Engineering (PE) license can significantly improve your job prospects. To acquire a PE license, candidates must have a bachelor’s degree from an accredited engineering program, pass the Fundamentals of Engineering (FE) exam, gain relevant work experience (typically four years), and pass the Principles and Practice of Engineering (PE) exam.

Step 6: Consider a master’s degree

Earning a master’s degree in engineering is not necessary for all manufacturing engineering positions, but it can certainly provide an advantage in competitive job markets. It’s especially relevant for those interested in research and development, team management roles, or academic positions.

Step 7: Stay updated with the latest manufacturing trends and technologies

The field of manufacturing is ever-evolving with advancements in technology. It’s important to stay up-to-date with the latest trends, technology, and techniques and continually improve your skills. Attending workshops and webinars and obtaining additional certifications can greatly enhance your skills and keep you competitive.


How much do manufacturing engineers make?

Manufacturing engineer salaries vary by experience, industry, education, location, and organization size. Compensation can be notably impacted by the complexity of the manufacturing processes they oversee and the specific technical and software skills required by their employer.

Highest paying industries

  • Oil and Gas Extraction – $102,610
  • Scientific Research and Development – $97,940
  • Computer and Peripheral Equipment Manufacturing – $96,170
  • Aerospace Product and Parts Manufacturing – $95,930
  • Navigational Instruments Manufacturing – $94,860

Highest paying states

  • California – $102,020
  • Washington – $98,690
  • New Mexico – $97,160
  • Texas – $95,280
  • Maryland – $94,990

Browse manufacturing engineer salary data by market


Types of manufacturing engineers

Below, we explore common career types and areas of specialization for manufacturing engineers. This section will help you understand the various roles available in this dynamic field.

Product development engineer

If product designing and development spark your interest, this role might be ideal for you. Product development engineers are entrusted with designing, developing, and testing new products. They collaborate with other teams to ensure products are designed efficiently and cost-effectively.

Process engineer

If you are inclined to improve processes and reduce waste, consider a process engineer role. These professionals improve the existing manufacturing processes to enhance a company’s overall productivity. They identify inefficiencies, devise better processes, and implement improvements.

Quality control engineer

If meticulous investigation and thorough assessment are your strong suit, consider a career as a quality control engineer. They closely monitor the manufacturing process, maintain the organization’s quality standards, and promptly address deviations.

Industrial management engineer

An industrial management engineer has management responsibilities. Combining both the engineering and management aspects, these professionals find ways to increase efficiency, reduce cost, and improve the company’s workflows.

Automation engineer

An automation engineer’s role is designed for those enthusiastic about machines and automation technologies. They design, program, simulate, and test automated machinery and processes to effectively complete tasks previously done by humans.


Top skills for manufacturing engineers

This career guide section outlines the skills and abilities that will help you find success as a manufacturing engineer.

Analytical skills

As a professional in this field, you’ll excel by having strong analytical abilities. This involves the use of logic and reasoning to identify the strengths and weaknesses of complex systems, conclusions, or approaches to problems. There is a need for engineers to examine systems and processes, detect problems, and use data to come up with effective solutions.

Attention to detail

In manufacturing, every tiny detail matters. Intensive scrutiny is needed in reviewing specifications, blueprints, and machine operations. They must carefully verify the accurate completion of projects to ensure that all safety laws are complied with, and quality standards are met. High levels of precision and meticulousness are undoubtedly vital in this role.

Technical knowledge

Knowing the nitty-gritty of manufacturing processes, machinery, and CAD technology is significant in this profession. You should also have a sound understanding of materials, their properties, and behaviors under different conditions. Continuous learning and staying updated with technological advancements are also important as they directly impact the efficiency of manufacturing setup.

Problem-solving expertise

Challenges in the manufacturing process are common, and the ability to promptly identify and resolve them is a critical part of the job. The ability to visualize a problem, evaluate the various solutions, and select the most effective one can significantly affect productivity and efficiency.

Interpersonal skills

Solid interpersonal skills are necessary for engineers to effectively collaborate with team members, clients, and other stakeholders. These professionals often work with individuals and groups from various disciplines and levels, so they must be able to communicate effectively, understand others’ ideas, and aim for a productive collaboration.

Resource management

Their responsibilities include optimizing time, materials, and personnel. This calls for an ability to plan, organize, and manage resources efficiently, aiming to increase productivity and minimize wastage without sacrificing quality.


Manufacturing engineer career path options

Begin your journey as a manufacturing engineer with the mindset that this role is a stepping stone rather than the final destination in your career. The skills and knowledge you gain in system design, project management, and product development will serve as valuable assets as you ascend the ladder of success. This role is a great springboard that can lead to a variety of exciting opportunities within engineering, production management, or even in a more specialized field.

With multiple years of professional experience under your belt, you can aim for higher roles, such as a senior manufacturing engineer. This position allows for more significant influence and responsibility in complex projects. In this role, your ability to plan, strategize, and execute will be tested, and your professional space to innovate will expand.

If you find a particular aspect of manufacturing engineering exceptionally appealing, becoming a specialist is a viable career path. For example, you might choose to be a quality control or process engineer. In these positions, your focus becomes narrower, and you gain in-depth expertise that distinguishes you as an expert in your chosen field.

A strong background in manufacturing engineering may also lead you to roles outside engineering, such as operational or plant management. Holding such positions, you manage day-to-day operations and streamline production processes. Alternatively, you might aspire to become a project manager, leading multidisciplinary teams to execute manufacturing projects successfully.

Another path you might take is becoming an independent consultant. Here, you provide expert advice to companies requiring assistance in manufacturing processes or solving complex engineering problems. If an academic path appeals to you, consider returning to university as a lecturer or researcher, where your experience can guide and inspire the next generation of manufacturing engineers.


In the world of manufacturing, trends are primarily driven by continuous advancements in technology and efficiencies in processes. Manufacturing engineers sit at the intersection of these two elements and play a significant role in identifying improvements. One key trend within this industry is the rise of additive manufacturing (AM). A technology that builds items layer by layer, AM, also known as 3D printing, is reshaping how products are made.

Simultaneously, an increasing focus on sustainability is pushing industries to reevaluate many of their existing practices. This focus has led to considerable innovation in waste reduction and energy-efficient processes, areas in which this profession plays a critical part. The sustainable manufacturing trend means its roles are becoming more focused on practices that reduce waste and increase energy efficiency.

Lastly, the increasing adoption of artificial intelligence (AI) and automation within manufacturing landscapes is reshaping engineering roles. Professionals within this role are expected to have an understanding of AI and lean manufacturing principles to streamline processes.

Employment projections

According to the U.S. Bureau of Labor Statistics, the employment for manufacturing engineers is projected to grow 10 percent through 2031, faster than the average for all occupations. Advancements in technology and the increasing need for improved manufacturing processes in various industries are the primary drivers for this growth.


Manufacturing engineer career tips

Master the manufacturing process

Understanding the entire manufacturing process is key to success, meaning you must be well aware of every stage, from initial design and material selection to production and quality testing. Predicting possible issues and knowing how to improve processes will set you apart in this field.

Adapt to tech advancements

The manufacturing industry is a sector that constantly evolves with new technologies. Keeping up to date with these advancements can make you a valuable asset to any company. Regularly read industry-related publications and participate in workshops or courses to grasp the latest tech-integrated manufacturing procedures.

Strength in math and science

Being strong in fields like physics, chemistry, and mathematics is important. These subjects often underpin the principles of manufacturing processes. If you are comfortable with these subjects, you’ll have a solid foundation for understanding and applying the technical aspects of your work.

Focus on cost-efficiency and sustainability

Many companies in this sector are under pressure to become more cost-efficient and environmentally friendly. Creating and initiating plans that promote these key factors can enhance your reputation and progression in the field. This could involve reducing waste, recycling materials, improving energy efficiency, or lowering production costs.

Build a professional network

Joining professional associations and attending industry events can help you build a network of connections and keep you informed about job opportunities, industry news, and trends. Some relevant organizations for you could be:

  • The American Society of Mechanical Engineers (ASME)
  • Association for Manufacturing Technology (AMT)
  • The International Association of Engineers (IAENG)
  • Society of Manufacturing Engineers (SME)

Continuous education

Continuous education is essential for specialists in this ever-evolving sector. Keep your knowledge and skills updated by:

  • Attending webinars, online courses, or workshops centered on manufacturing engineering concepts
  • Working toward certifications such as Certified Manufacturing Engineer (CMfgE) or Certified in Production and Inventory Management (CPIM)
  • Reading industry-specific publications to stay informed about the latest trends and advances in manufacturing engineering technology

Where the manufacturing engineer jobs are

Top employers

  • General Motors
  • Ford Motor Company
  • The Boeing Company
  • Raytheon Technologies
  • Lockheed Martin Corporation

Top states

  • California
  • Michigan
  • Texas
  • Ohio
  • North Carolina

Top job sites

  • zengig
  • Indeed
  • LinkedIn
  • Monster
  • CareerBuilder

FAQs

What are the essential skills for a manufacturing engineer?

They must have good problem-solving skills to design and streamline production processes efficiently. An understanding of CAD and CAM software will be beneficial. Also, strong communication skills are important as they’ll liaise with different manufacturing teams. Knowledge of lean manufacturing principles is also a plus.

What kind of education is typically required for manufacturing engineers?

Most roles in this field will require a bachelor’s degree in manufacturing engineering, mechanical engineering, or a related field. Some positions may prefer candidates with a master’s degree or PE certification.

Is prior work experience required for a manufacturing engineer?

While entering this field with only a degree is possible, most employers prefer candidates with relevant work experience. This can be obtained through internships, co-op programs, or entry-level roles in manufacturing or engineering.

What does a typical workday look like for a manufacturing engineer?

A typical workday may involve reviewing production schedules, engineering specifications, process flows, and other documents to understand methods and activities in manufacturing and services. Much of their time might be spent identifying inefficiencies and recommending improvements. They may also spend time communicating with suppliers and other departments to ensure coordination of production activities.

What are some common challenges for manufacturing engineers?

One common challenge is keeping up with technological advances and implementing these changes into manufacturing processes. Bringing others on board with new methods can also be challenging and requires good change management skills. Ensuring that all processes adhere to safety regulations and quality standards is another potential hurdle.

How do manufacturing engineers directly impact production and efficiency?

They are integral to the production process since they focus on designing and improving production systems. Their work directly impacts efficiency as it aims to reduce production costs and wastage, speed up production times, and improve product quality. By constantly evaluating systems, implementing changes, and watching their impact, they contribute significantly to a company’s bottom line.

What is the role of a manufacturing engineer in a product development team?

In a product development team, this role is important for ensuring that the product is designed in a way that will be efficient for manufacturing. They may conduct feasibility studies to ensure that the proposed design can be produced in an economical and feasible manner. Additionally, they might work with the product design team to suggest modifications to enhance manufacturability.

How important is collaboration for manufacturing engineers?

Collaboration is essential as they frequently work with production staff, product designers, sales teams, and upper management. Effective collaboration helps to ensure a seamless production process and contributes to the overall success of the project or product being manufactured.

Are there specific software tools and technology commonly used in manufacturing engineering?

Yes, software tools and technology are key components of modern manufacturing engineering. CAD, CAM, and CNC systems are all commonly used. Applications for project management, production planning, and quality control are also often used.