DevOps Engineer – Semiconductor EDA Tools & Automation

Role Summary

The DevOps Engineer will architect, automate, and optimize high-performance environments for Electronic Design Automation (EDA) workloads. The role aims to empower semiconductor design and manufacturing by enabling R&D teams to innovate faster with scalable DevOps solutions.

Experience Level

Mid-level; 3+ years of hands-on experience required.

Responsibilities

Key responsibilities include:

• Designing, automating, and managing DevOps pipelines for EDA tools (Cadence PSPICE, Artisan, etc.) on-prem and in the cloud.
• Working with EDA tool vendors and TI teams to respond to customer inquiries.
• Building and maintaining scalable infrastructure for simulation and verification workloads.
• Developing and managing infrastructure-as-code solutions for EDA environments.
• Collaborating with engineering, IT, and security teams to ensure robust cybersecurity controls.
• Optimizing resources for fast access to EDA tools.
• Troubleshooting and enhancing the performance of EDA workloads and DevOps pipelines.

Requirements

Qualifications include the following:

• Must-have: Current U.S. DoD Secret security clearance, Bachelor's degree in Computer Science or Engineering, 3+ years experience with EDA tools.
• Nice-to-have: Experience with cloud platforms (AWS, Azure), strong DevOps practices background, knowledge of LSF or Slurm job schedulers, cloud certifications.
• Strong analytical, troubleshooting, communication skills, and solid Linux administration skills.

Education Requirements

Bachelor's degree in Computer Science, Engineering, or related field.

About the Company

Company: Texas Instruments

Headquarters: Dallas, Texas, USA

Texas Instruments is a global semiconductor company that designs, manufactures, and sells analog and embedded processing chips for various markets including industrial, automotive, and personal electronics. The company's innovations aim to make electronics more affordable and reliable, fostering advancements in technology through each generation of semiconductors.