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Ceramic Engineer

As a Ceramic Engineer, you’ll be part of a collaborative group of engineers whose role is to develop, design, and engineer materials made of ceramics. This field is heavily involved in every aspect of our daily lives, from the creation of microchips that power our computers and phones to the design of the cars we drive to the architectural features in the buildings we inhabit. Ceramic engineers may explore their field through research, development, production, design, and sales. This role is integral to the metallurgy, electronics, telecommunications, and automotive industries among many others.

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As a Ceramic Engineer, you’ll be part of a collaborative group of engineers whose role is to develop, design, and engineer materials made of ceramics. This field is heavily involved in every aspect of our daily lives, from the creation of microchips that power our computers and phones to the design of the cars we drive to the architectural features in the buildings we inhabit. Ceramic engineers may explore their field through research, development, production, design, and sales. This role is integral to the metallurgy, electronics, telecommunications, and automotive industries among many others.

What Does a Ceramic Engineer Do?

Some of the day-to-day responsibilities you might find within the scope of your practice may include:

  • Researching new ways to create ceramic materials
  • Designing and developing new ceramic products
  • Improving the manufacturing processes of current ceramic materials
  • Testing and evaluating the performance of ceramic materials
  • Working with customers to determine their needs
  • Providing technical support to customers

What are the Benefits of Working in this Field?

  • Ceramic engineers can affect consumer-facing products on a widespread scale
  • This is a constantly evolving career field with the promise of new discovery
  • Ceramic engineering encompasses micro- and nano-engineering on the small scale in addition to advanced material engineering and design on the large scale
  • The role of a ceramic engineer is crucial to the production of materials critical to quality of life in modern society
  • The ability to combine creativity and the scientific method opens doors to researchers in this field

Challenges Unique to Ceramic Engineering

This field necessitates the need to use mathematics, computers, and technology in the design and analysis of ceramic materials. Beyond analytical challenges, there’s pressure to keep up-to-date with rapidly changing technology. The physical demands of the job may include working with heavy equipment and potentially hazardous chemicals.

What Industries Hire Ceramic Engineers?

Ceramic engineers are employed in a range of industries that use their services and products, including:

  • Automotive
  • Electronics
  • Aerospace
  • Biomedical
  • Chemical

Educational Background

Ceramic engineers typically need a bachelor’s degree in ceramic engineering, materials science, or a related field. Some employers may prefer candidates with a master’s degree or a doctorate. Additionally, ceramic engineers must be licensed in the states in which they practice, so some college programs will prepare candidates to sit for the Fundamentals of Engineering (FE) exam, the first step toward licensure.

Personal Traits and Interests of a Ceramic Engineer

  • Detail-oriented
  • Analytical
  • Problem-solver
  • Good communication and interpersonal skills
  • Passionate about science and technology

Projects for Self-Directed Study

If you are interested in this field, there are a number of projects you can complete to prepare yourself:

  • Research the different types of ceramic materials and their properties
  • Design and build a simple ceramic object
  • Test the strength and durability of different ceramic materials
  • Learn about the different manufacturing processes used to create ceramic products
  • Attend a conference or workshop on ceramic engineering

How Online Courses Can Prepare You for Ceramic Engineering

Online courses can give learners the opportunity to develop the skills and knowledge necessary to pursue a career as a ceramic engineer. These courses can cover a wide range of topics, including the properties of ceramic materials, the manufacturing processes used to create ceramic products, and the design of ceramic components. By taking online courses, learners can supplement their traditional education or gain the skills they need to enter the field of ceramic engineering.

Can I Get a Degree in Ceramic Engineering Online?

While online courses can be a valuable resource for aspiring ceramic engineers, it is important to note that a degree in ceramic engineering cannot be earned entirely online. However, online courses can be a helpful way to prepare for a traditional degree program or to develop the skills that are necessary for a career in this field.

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Salaries for Ceramic Engineer

City
Median
New York
$117,000
San Francisco
$135,000
Seattle
$140,000
See all salaries
City
Median
New York
$117,000
San Francisco
$135,000
Seattle
$140,000
Austin
$120,000
Toronto
$99,000
London
£78,000
Paris
€59,500
Berlin
€84,000
Tel Aviv
₪510,000
Singapore
S$116,000
Beijing
¥212,000
Shanghai
¥118,000
Shenzhen
¥505,000
Bengalaru
₹446,000
Delhi
₹340,000
Bars indicate relevance. All salaries presented are estimates. Completion of this course does not guarantee or imply job placement or career outcomes.

Reading list

We haven't picked any books for this reading list yet.
This classic textbook in the field, and is widely regarded as one of the best books on ceramic materials. It provides a comprehensive overview of the field, covering everything from the basics of crystallography to the latest advances in ceramic processing.
This classic textbook gives a clear and concise overview of the field of ceramics, covering the basics of ceramic science and engineering, as well as the latest developments in the field.
This textbook provides a comprehensive overview of the field of ceramic processing, covering everything from the basics of powder preparation to the latest advances in sintering.
Provides a practical guide to using phase diagrams in materials science, with a focus on interpretation and application.
Provides a comprehensive treatment of phase diagrams in metallurgy, including their construction, interpretation, and application to alloy design and processing.
Provides an in-depth look at the relationship between ceramic microstructure and properties. It is an excellent resource for anyone interested in understanding how to control the properties of ceramics.
Provides a comprehensive overview of the field of military ceramics, covering everything from the basics of ceramic materials to the latest advances in applications.
Written in German, this book provides a comprehensive overview of zirconia in dentistry. It covers the material's properties, processing techniques, and applications in dental restorations, making it a valuable resource for dental professionals.
Provides a historical perspective on the development and applications of zirconia and zirconia ceramics. It covers various aspects, including properties, processing, and applications in different industries.
Provides a comprehensive treatment of phase diagrams in materials science and engineering, including their construction, interpretation, and application to materials design and processing.
Provides a comprehensive treatment of phase diagrams of multicomponent alloys, including their construction, interpretation, and application to alloy design.
Focuses specifically on the use of zirconia in hip and knee replacements. It reviews the clinical outcomes, advantages, and limitations of zirconia implants, providing valuable insights for orthopedic surgeons.
Provides a comprehensive collection of phase diagrams for condensed matter systems, including metals, alloys, semiconductors, and ceramics.
Provides a comprehensive collection of phase diagrams for inorganic compounds, including metals, alloys, semiconductors, and ceramics.
Provides a practical guide to the use of zirconia in dentistry. It covers the clinical applications, advantages, and limitations of zirconia-based restorations.
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