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Semiconductor Engineering Jobs in Ohio (NOW HIRING)

... in semiconductor materials. Our superior products help customers introduce cutting-edge ... Minimum of a bachelor's degree in materials science or other relatable engineering field required ...

They are seeking an Electronics Engineering Manager to lead their Electronics Engineering team ... semiconductor, or oil/gas/chemical applications preferred. Preferred : • Master's degree ...

Tosoh SMD, Inc. is a global leader in semiconductor materials. Our superior products help customers ... Bachelor's degree in electrical engineering, computer science, or equivalent. Skills and ...

Under the direction of Engineering staff and the Technician Supervisor, the Engineering Technician ... semiconductor analysis to cryogenic cooling systems. As a cleared defense contractor, AMT also ...

$136.95 - $205.43/hr

Master's degree in Engineering, Semiconductor Electronics, Industrial Engineering, Operations Management, or a related field * Minimum 10 years of professional experience in operations, industrial ...

Our company's products are integral to the semiconductor equipment and optical markets. The ... Provides cross-functional collaboration with Engineering, Operations, Quality, and Maintenance to ...

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Showing results 1-20

Semiconductor Engineering information

See Ohio salary details

$43.3K

$62.5K

$78.9K

How much do semiconductor engineering jobs pay per year?

As of Jul 18, 2026, the average yearly pay for semiconductor engineering in Ohio is $62,483.00, according to ZipRecruiter salary data. Most workers in this role earn between $59,900.00 and $59,900.00 per year, depending on experience, location, and employer.

What is semiconductor engineering?

Semiconductor engineering is a specialized field focused on the design, development, and manufacturing of semiconductor devices, such as microchips and transistors, which are essential components in electronic devices. Engineers in this field work on creating and improving the materials, processes, and technologies used to produce integrated circuits and other semiconductor components. Their work is critical to advancements in computers, smartphones, automotive technology, and many other electronic systems. Semiconductor engineers often collaborate with multidisciplinary teams to solve complex technical challenges and drive innovation in the electronics industry.

What is the difference between Semiconductor Engineering vs Electrical Engineering?

AspectSemiconductor EngineeringElectrical Engineering
Required CredentialsBachelor's or higher in Semiconductor, Electrical, or Electronics EngineeringBachelor's or higher in Electrical, Electronics, or Electrical Engineering
Work EnvironmentCleanrooms, labs, manufacturing facilities focused on chip design and fabricationOffices, labs, and field sites working on electrical systems, power, and circuitry
Industry UsagePrimarily in semiconductor manufacturing, chip design, and fabrication companiesBroadly used across power, electronics, telecommunications, and automation industries

Semiconductor Engineering specializes in designing, developing, and manufacturing semiconductor devices and integrated circuits, often within cleanroom environments. Electrical Engineering covers a wider range of electrical systems, power distribution, and circuitry across various industries. While both roles require similar educational backgrounds, Semiconductor Engineering focuses specifically on chip technology and fabrication processes, making it a more specialized field within the broader electrical engineering domain.

What are some common challenges semiconductor engineers face when working on new chip designs?

Semiconductor engineers often encounter challenges such as managing the complexity of integrating millions or even billions of transistors on a single chip while ensuring performance, power efficiency, and manufacturability. Meeting tight project deadlines and rapidly evolving industry standards can also be demanding. Collaboration with cross-functional teams—including design, verification, and manufacturing engineers—is essential to identify and resolve issues early in the design cycle. Additionally, adapting to new process technologies and troubleshooting unexpected fabrication or performance problems are routine aspects of the role.

What engineers make $500,000 a year?

In semiconductor engineering, senior-level engineers with extensive experience, specialized skills in areas like process integration or device physics, and leadership roles such as engineering managers can earn $500,000 or more annually. Achieving this level often requires advanced degrees, certifications, and a track record of significant contributions in high-demand technical environments.

What do you do as a semiconductor engineer?

A semiconductor engineer designs, develops, and tests semiconductor devices and integrated circuits used in electronic equipment. They work with materials, fabrication processes, and testing tools to improve chip performance and reliability, often collaborating with cross-disciplinary teams and using CAD software. The role typically requires knowledge of physics, materials science, and electrical engineering principles.

What engineers make $200,000 a year?

In semiconductor engineering, senior-level engineers such as design engineers, process engineers, and systems engineers with extensive experience and advanced skills can earn $200,000 or more annually. These roles often require specialized knowledge of chip design, fabrication processes, or EDA tools, and may include bonuses or stock options. Compensation varies based on location, company size, and individual expertise.

What is the salary of a semiconductor engineer?

The average salary of a semiconductor engineer varies by experience and location but typically ranges from $70,000 to $120,000 annually. Entry-level positions may start lower, while experienced engineers with specialized skills or certifications can earn higher salaries, especially in high-demand regions or companies with advanced fabrication facilities.

What are the key skills and qualifications needed to thrive as a Semiconductor Engineer, and why are they important?

To thrive as a Semiconductor Engineer, you need a solid background in electrical engineering, physics, and materials science, typically supported by a relevant bachelor's or master's degree. Familiarity with CAD tools, circuit simulation software, and semiconductor fabrication processes is essential, along with certifications like Six Sigma or IPC standards being advantageous. Strong problem-solving abilities, attention to detail, and effective teamwork skills set outstanding candidates apart in this field. These competencies are crucial for designing reliable semiconductor devices, ensuring manufacturing efficiency, and driving innovation in a rapidly evolving industry.
What are the most commonly searched types of Semiconductor Engineering jobs in Ohio? The most popular types of Semiconductor Engineering jobs in Ohio are:
What job categories do people searching Semiconductor Engineering jobs in Ohio look for? The top searched job categories for Semiconductor Engineering jobs in Ohio are:
What cities in Ohio are hiring for Semiconductor Engineering jobs? Cities in Ohio with the most Semiconductor Engineering job openings:
Infographic showing various Semiconductor Engineering job openings in Ohio as of July 2026, with employment types broken down into 90% Full Time, 8% Part Time, and 2% Contract. Highlights an 87% Physical, 3% Hybrid, and 10% Remote job distribution, with an average salary of $62,483 per year, or $30 per hour.
Development Engineer (AI-Augmented Scientific Modeling)

Development Engineer (AI-Augmented Scientific Modeling)

First Solar

Perrysburg, OH • On-site, Remote

Full-time

Posted 12 days ago


First Solar rating

6.8

Company rating: 6.8 out of 10

Based on 73 frontline employees who took The Breakroom Quiz

424th of 528 rated manufacturers


Job description

First Solar reserves the right to offer you a role most applicable to your experience and skillset. 

Basic Job Functions:

First Solar is seeking a self-driven computational scientist, scientific modeling engineer, applied physicist, or AI-augmented research engineer to help accelerate scientific learning and R&D decision-making. The role combines physical reasoning, computation, data analysis, scientific software, and modern AI-assisted workflows to turn complex observations into practical insight.

This role sits at the intersection of scientific modeling, AI-assisted research workflows, data science, simulation, uncertainty analysis, and engineering decision support. The candidate will develop models, software tools, and analytical workflows that help transform scientific information and experimental results into practical engineering insight.

Education/Experience:

  • Bachelor's degree and 10 years of experience, Master's degree and 8 years of experience, or Ph.D. (strongly preferred) and 5 years of experience in Engineering (Chemical, Electrical, Mechanical, or Computational Science and Engineering) or a related technical field (e.g., Applied Mathematics, Scientific Computing, Physics, Materials Science, Astronomy/Astrophysics, Computational Chemistry, or Computational Biology).

  • Relevant experience must include applying computational, physical, statistical, data-driven, or AI-enabled methods to scientific or engineering challenges.

  • Alternatively, candidates with 2 years of experience as a Development Engineer II at First Solar will be considered.

  • Helpful, but not necessary experience:

    • Experience creating models, software tools, or analytical workflows that influenced experimental decisions, process improvements, engineering decisions, or scientific strategy.

    • Experience building computational pipelines for complex experimental or observational data from microscopy, spectroscopy, scattering measurements, tomography, reliability testing, manufacturing systems, or field-performance monitoring.

    • Experience modeling one or more of the following: transport, diffusion, reaction kinetics, degradation, defect physics, semiconductor behavior, electrochemical systems, materials evolution, or coupled process-structure-property relationships.

    • Familiarity with materials science, photovoltaics, semiconductor devices, thin films, defect chemistry, energy materials, manufacturing process data, or field-performance modeling.

Required Skills/Competencies:

  • Strong written and verbal English communication skills, with the ability to participate effectively in cross-functional technical teams.

  • Experience using modern AI tools and integrating AI-assisted methods into scientific, engineering, or research workflows to accelerate modeling, simulation, software development, literature synthesis, data analysis, or technical decision-making.

  • Demonstrated ability to independently learn new scientific, computational, or analytical methods and apply them to unfamiliar technical problems.

  • Ability to work effectively in ambiguous research environments where the correct model, mechanism, or interpretation is not known in advance.

  • Candidates should demonstrate strength in the following areas:
    • Machine learning, AI-assisted scientific workflows, surrogate modeling, or simulation acceleration.
    • Scientific modeling of physical, chemical, materials, device, or engineering systems.
    • Data analysis, inference, uncertainty assessment, optimization, or model calibration.
    • Scientific software development in Python, Julia, C++, MATLAB, C#, or similar environments.
    • Integration of models and algorithms with experimental, operational, reliability, manufacturing, or field data.
    • Ability to connect scientific understanding with practical engineering decisions.
    • Evidence of scientific curiosity, creativity, intellectual independence, and ability to challenge assumptions constructively.

Essential Responsibilities:

  • Develop and apply machine-learning, generative AI, and physics-informed modeling approaches to explore complex structure-property-performance relationships, identify promising design directions, and accelerate scientific understanding of material systems.

  • Evaluate and apply AI-assisted tools and emerging computational methods that meaningfully improve scientific productivity, model development, data analysis, simulation workflows, or engineering decision quality.

  • Translate physical hypotheses, experimental observations, and engineering questions into scientific models, surrogate models, decision-support tools, and AI-enhanced analytical workflows that help researchers understand complex systems, evaluate competing hypotheses, prioritize opportunities, and guide R&D decisions.

  • Implement scientific models and analysis workflows as reusable computational tools with attention to robustness, computational efficiency, documentation, and reproducibility.

  • Identify knowledge gaps, critical uncertainties, and high-value learning opportunities across research programs, to maximize information gained from experiments and simulations.

  • Use experimental data to support model calibration, parameter estimation, uncertainty assessment, sensitivity analysis, and model validation.

  • Work closely with process development, characterization, reliability, device physics, and other technical teams to improve scientific learning cycles, accelerate problem-solving, and convert research insights into practical engineering actions. 

  • Communicate modeling assumptions, limitations, validation results, uncertainty, and technical conclusions clearly to both specialist and non-specialist audiences.

Reporting Relationships:

  • Report to Fellow, Advanced Research.
  • This position will not have direct reports.

Travel:

  • 0% - 5% (On occasion/as needed for training, etc.)

Estimated Salary Range:

  • $80,700 - $135,000 Annually

Physical Requirements:

All positions in our office require interaction with people and technology while either standing or sitting. To best service our customers, internal and external, all associates must be able to communicate face-to-face and on the phone with or without reasonable accommodation. First Solar is committed to compliance with its obligations under all applicable state and federal laws prohibiting employment discrimination. In keeping with this commitment, it attempts to reasonably accommodate applicants and employees in accordance with the requirements of the disability discrimination laws. It also invites individuals with disabilities to participate in a good faith, interactive process to identify reasonable accommodations that can be made without imposing an undue hardship.

Potential candidates will meet the education and experience requirements provided on the above job description and excel in completing the listed responsibilities for this role. All candidates receiving an offer of employment must successfully complete a background check and any other tests that may be required.      

Equal Opportunity Employer Statement: First Solar is an Equal Opportunity Employer that values and respects the importance of a diverse and inclusive workforce. It is the policy of the company to recruit, hire, train and promote persons in all job titles without regard to race, color, religion, sex, age, national origin, veteran status, disability, sexual orientation, or gender identity. We recognize that diversity and inclusion is a driving force in the success of our company.


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