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Computational Lithography Engineer Jobs (NOW HIRING)

Our engineers are working at the leading edge of computational lithography, Resolution Enhancement Techniques, and advanced process integration, solving the fundamental patterning and process ...

Our engineers are working at the leading edge of computational lithography, Resolution Enhancement Techniques, and advanced process integration, solving the fundamental patterning and process ...

ASML San Jose, CA is an industry leader in computational lithography for integrated circuits. Our ... You will work closely with software developers, application engineers, and domain experts to ...

At Synopsys, you will work on computational lithography models that enable the next generation of ... Work directly with field engineers and customers to troubleshoot model behavior, gather ...

Senior IP Attorney

San Jose, CA · On-site

$150 - $200/hr

The San Jose IP team provides IP support to scientists, engineers and management responsible for ASML products in computational lithography, metrology, and inspection. Job Mission The Patent Attorney ...

IP Attorney

San Jose, CA · On-site

$200 - $250/hr

The San Jose IP team provides IP support to scientists, engineers and management responsible for ASML products in computational lithography, metrology, and inspection. Job Mission The Patent Attorney ...

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Computational Lithography Engineer information

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$11K

$88.2K

$131K

How much do computational lithography engineer jobs pay per year?

As of Sep 8, 2026, the average yearly pay for computational lithography engineer in the United States is $88,214.00, according to ZipRecruiter salary data. Most workers in this role earn between $73,500.00 and $90,000.00 per year, depending on experience, location, and employer.

What is a computational lithography engineer?

Computational Lithography Engineers are professionals who use advanced computational techniques and software to design, simulate, and optimize photolithography processes in semiconductor manufacturing. They work to improve the resolution, accuracy, and efficiency of printing tiny patterns onto silicon wafers, which are essential for making computer chips and other microelectronic devices. Their work involves developing and applying algorithms, models, and simulations to predict and mitigate challenges in the lithography process, ultimately enabling the production of smaller, faster, and more reliable electronic components.

What are the key skills and qualifications needed to thrive as a computational lithography engineer?

To thrive as a Computational Lithography Engineer, you need a strong background in physics, optics, semiconductor manufacturing, and advanced mathematics, typically supported by a degree in electrical engineering, physics, or a related field. Familiarity with computational modeling tools such as MATLAB, Python, and specialized lithography simulation software is essential, along with knowledge of semiconductor process flows. Analytical thinking, problem-solving, and effective collaboration are key soft skills that help address complex challenges and work within cross-functional teams. These skills and qualities are crucial for optimizing photolithography processes, driving innovation, and ensuring high-yield semiconductor fabrication.

What are the typical collaborative interactions a computational lithography engineer has within a semiconductor fabrication team?

Computational Lithography Engineers frequently collaborate with process engineers, design teams, and equipment specialists to optimize photolithography processes. They work closely with design engineers to interpret mask layouts and ensure manufacturability, while also partnering with process engineers to troubleshoot and improve pattern fidelity on wafers. Regular meetings and data-sharing sessions are common, as these engineers must integrate feedback from multiple departments to refine simulation models and support yield improvement initiatives. This collaborative environment helps ensure that both design intent and manufacturing constraints are met effectively.

What is the difference between Computational Lithography Engineer vs Optical Engineer?

AspectComputational Lithography EngineerOptical Engineer
Required CredentialsBachelor's or Master's in Electrical Engineering, Computer Science, or related fields; knowledge of lithography processesBachelor's or Master's in Optical Engineering, Physics, or related fields; expertise in optics and light behavior
Work EnvironmentSemiconductor fabrication facilities, R&D labs, design teamsOptics labs, research institutions, manufacturing settings
Industry UsageSemiconductor industry, chip design, mask makingImaging systems, laser systems, optical instrument design

Computational Lithography Engineers focus on developing algorithms and software to improve photolithography processes in semiconductor manufacturing. Optical Engineers work on designing and optimizing optical systems and components. While both roles require strong technical skills and knowledge of optics, the Computational Lithography Engineer emphasizes computational methods and software, whereas the Optical Engineer concentrates on physical optical systems. Both roles are vital in high-tech industries but serve different specialized functions.

What are popular job titles related to Computational Lithography Engineer jobs?

For Computational Lithography Engineer jobs, the most frequently searched job titles are:

Infographic showing various Computational Lithography Engineer job openings in the United States as of September 2026, with employment types broken down into 1% Internship, 92% Full Time, 3% Part Time, and 4% Contract. Highlights an 85% Physical, 4% Hybrid, and 11% Remote job distribution, with an average salary of $88,214 per year, or $42.4 per hour.

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Re-posted 23 days ago


Texas Instruments rating

8.1

Company rating: 8.1 out of 10

Based on 86 frontline employees who took The Breakroom Quiz

52nd of 161 rated electronics manufacturers


Job description


Change the world. Love your job.
Texas Instruments is in an exciting era of growth and innovation, and our Advanced Technology Development (ATD) organization is at the center of it. We are developing the 28nm process technologies that will define TI's next generation of analog and embedded processing capabilities. As part of ATD, you won't just support production, you'll create the technology that makes it possible. Our engineers are working at the leading edge of computational lithography, Resolution Enhancement Techniques, and advanced process integration, solving the fundamental patterning and process challenges that determine whether a 28nm technology can be manufactured at scale and at yield. The work done in ATD directly enables fabs that will manufacture tens of millions of analog and embedded processing chips every day supporting customer demand for decades to come. We're committed to responsible, sustainable semiconductor manufacturing and to building a diverse, technically excellent team that drives meaningful impact across the industry. In this role, you'll work at the intersection of fundamental research and high-volume manufacturing, turning process innovations into production-ready technologies that power electronics everywhere.
Job Description:
At 28nm and below, photolithography cannot simply print a chip design as drawn but rather optical diffraction causes critical features to print incorrectly, with direct consequences to yield and device performance. Solving that problem is your job. As a DFM/OPC Engineer in TI's Resolution Enhancement Techniques (RET) team within ATD, you are the technical authority responsible for bridging the gap between what designers draw and what the fab can reliably print. You'll develop, optimize, and deploy Optical Proximity Correction (OPC) models and Design for Manufacturability (DFM) solutions that ensure every product tapeout can be accurately realized in silicon at 28nm at yield entitlement. This role sits at the intersection of computational lithography, layout design, and process integration; your work is a prerequisite for every analog product TI ships from LFAB.
Responsibilities:
  • Develop, evaluate, and implement advanced OPC models and recipes for 28nm and equivalent advanced node technologies
  • Perform comprehensive DFM analysis on product designs, identifying and mitigating potential manufacturing issues (e.g., hotspots, yield detractors)
  • Collaborate with design teams to define DFM guidelines and ensure layout compliance with manufacturing capabilities
  • Work with lithography and process engineering teams to optimize OPC recipes and improve patterning performance, yield, and process window
  • Interface with OPC and lithography engineers to co-optimize layout structures for printability
  • Analyze lithography process data and wafer yield data to identify root causes of patterning defects and drive corrective actions
  • Evaluate and qualify new OPC/DFM software tools and methodologies
  • Develop and maintain automation scripts for OPC/DFM flows
  • Contribute to DFM-aware layout methodologies for custom analog IPs
  • Mentor junior engineers and contribute to team knowledge sharing

Qualifications
Minimum Requirements:
  • Master's or Ph.D. in Electrical Engineering, Physics, Materials Science, or related field
  • 5+ years of hands-on OPC and DFM experience in the semiconductor industry
  • Strong understanding of optical lithography principles and RET (OPC, SRA, assist features, mask technology)
  • Hands-on experience with industry-standard OPC tools (e.g., Synopsys Sentaurus Lithography, Siemens EDA Calibre, ASML Brion)
  • Familiarity with 28nm/22nm process constraints and lithographic limitations
  • Proficiency in scripting languages (Python, TCL, Perl, or equivalent)

Preferred Qualifications:
  • Experience with analog layout interaction with lithography and OPC flows
  • Familiarity with layout tools (e.g., Cadence Virtuoso); knowledge of DRC and LVS
  • Experience applying machine learning or AI techniques to OPC/DFM problems
  • Strong cross-functional collaboration and analytical skills

About Us
Why TI?
  • Engineer your future. We empower our employees to truly own their career and development. Come collaborate with some of the smartest people in the world to shape the future of electronics.
  • We're different by design. Diverse backgrounds and perspectives are what push innovation forward and what make TI stronger. We value each and every voice, and look forward to hearing yours. Meet the people of TI
  • Benefits that benefit you. We offer competitive pay and benefits designed to help you and your family live your best life. Your well-being is important to us. Please find our country-specific benefits here

About Texas Instruments
Texas Instruments Incorporated (Nasdaq: TXN) is a global semiconductor company that designs, manufactures and sells analog and embedded processing chips for markets such as industrial, automotive, data center, personal electronics and communications equipment. At our core, we have a passion to create a better world by making electronics more affordable through semiconductors. This passion is alive today as each generation of innovation builds upon the last to make our technology more reliable, more affordable and lower power, making it possible for semiconductors to go into electronics everywhere. Learn more at TI.com.
Texas Instruments is an equal opportunity employer and supports a diverse, inclusive work environment. All qualified applicants will receive consideration for employment without regard to race, color, religion, creed, disability, genetic information, national origin, gender, gender identity and expression, age, sexual orientation, marital status, veteran status, or any other characteristic protected by federal, state, or local laws.
If you are interested in this position, please apply to this requisition.
About the Team
TI does not make recruiting or hiring decisions based on citizenship, immigration status or national origin. However, if TI determines that information access or export control restrictions based upon applicable laws and regulations would prohibit you from working in this position without first obtaining an export license, TI expressly reserves the right not to seek such a license for you and either offer you a different position that does not require an export license or decline to move forward with your employment.

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About Texas Instruments

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As a global semiconductor company, we design, manufacture, test and sell analog and embedded processing chips to nearly 100,000 customers. Our products enable electronics everywhere and in things you experience every day - from health care, smart homes and connected cars to drones, smart phones and more. Our passion to create a better and more sustainable world by making electronics more affordable through semiconductors drives us to make our technology smaller, more efficient, more reliable and more affordable.

Industry

Semiconductor and electronic component manufacturing

Company size

10,000+ Employees

Headquarters location

Dallas, TX, US

Year founded

1930