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Phd Semiconductor Jobs in Virginia (NOW HIRING)

Work directly with commercial Complementary Metal-Oxide-Semiconductor (CMOS)/photonic foundries to ... MS in Electrical Engineering, Optical Engineering, Applied Physics or related field, PhD preferred

Work directly with commercial Complementary Metal-Oxide-Semiconductor (CMOS)/photonic foundries to ... or related field, PhD preferredHands-on experience with silicon photonics design and layout.

Work directly with commercial Complementary Metal-Oxide-Semiconductor (CMOS)/photonic foundries to ... MS in Electrical Engineering, Optical Engineering, Applied Physics or related field, PhD preferred

Bachelor's, Master's, or PhD in Electrical Engineering, Computer Engineering, or a related field ... Solid understanding of CMOS technology, semiconductor physics, and process limitations. * Expertise ...

Phd Semiconductor information

See Virginia salary details

$37.2K

$88.1K

$146.2K

How much do phd semiconductor jobs pay per year?

As of Aug 21, 2026, the average yearly pay for phd semiconductor in Virginia is $88,111.00, according to ZipRecruiter salary data. Most workers in this role earn between $68,900.00 and $107,100.00 per year, depending on experience, location, and employer.

What is a PhD semiconductor professional?

PhD Semiconductor professionals are experts who have earned a doctoral degree (PhD) with a focus on semiconductor physics, materials, devices, or related engineering fields. They conduct advanced research and development on semiconductor technologies, which are essential for electronics like computers, smartphones, and solar cells. These professionals often work in academia, research institutions, or the semiconductor industry, contributing to innovations in microchips, nanotechnology, and fabrication processes.

What are the key skills and qualifications needed to thrive as a PhD semiconductor researcher, and why are they important?

To thrive as a PhD Semiconductor Researcher, you need advanced knowledge in semiconductor physics, materials science, and device fabrication, typically supported by a doctorate in a relevant field. Familiarity with simulation software (such as TCAD), cleanroom processes, and analytical tools like electron microscopes is crucial. Strong problem-solving abilities, collaboration, and effective scientific communication help distinguish top performers in this role. These skills and qualities are essential for driving innovation, publishing impactful research, and contributing to technological advancements in the semiconductor industry.

What are some common challenges faced by PhD professionals working in the semiconductor industry, and how can they be addressed?

PhD professionals in the semiconductor industry often face challenges such as rapidly evolving technology, the need to stay current with cutting-edge research, and balancing long-term innovation with immediate project goals. Additionally, working in multidisciplinary teams requires strong communication skills to translate complex research into practical solutions. Overcoming these challenges involves continuous learning, active collaboration with engineering and manufacturing teams, and participating in industry conferences or workshops to stay updated on trends and breakthroughs.

What is the difference between Phd Semiconductor vs Semiconductor Engineer?

AspectPhd SemiconductorSemiconductor Engineer
Required CredentialsPhD in Electrical Engineering, Materials Science, or related fieldBachelor's or Master's in Electrical Engineering, Electronics, or related field
Work EnvironmentResearch labs, universities, R&D departmentsDesign, develop, and test semiconductor devices in manufacturing or R&D
Industry UsageAcademic research, advanced R&D, specialized industry rolesProduct development, manufacturing, and engineering teams

While a Phd Semiconductor focuses on advanced research and theoretical development in semiconductors, a Semiconductor Engineer applies practical engineering skills to design and produce semiconductor devices. Both roles are integral to the industry but differ mainly in their focus on research versus application.

Can you work in industry with a PhD semiconductor?

A PhD in semiconductor technology qualifies individuals for various industry roles such as research scientist, process engineer, or product development engineer. These positions often require strong technical skills, familiarity with semiconductor fabrication processes, and experience with tools like CAD software and cleanroom environments. Many PhD holders work in industry to develop new materials, improve manufacturing techniques, or innovate semiconductor devices.

How much does a PhD in semiconductors make?

A PhD in semiconductors typically earns between $100,000 and $150,000 annually, depending on experience, location, and industry sector. Senior roles or those in research and development may offer higher salaries, especially with specialized skills in device physics or fabrication processes.

What jobs can I get with a PhD in semiconductor?

A PhD in semiconductor typically qualifies individuals for research scientist, semiconductor process engineer, device physicist, or materials scientist roles in industries such as electronics, aerospace, and research institutions. These positions often require expertise in device fabrication, materials analysis, and simulation tools, and may involve working in labs or cleanroom environments.

What cities in Virginia are hiring for Phd Semiconductor jobs?

Cities in Virginia with the most Phd Semiconductor job openings:

Infographic showing various Phd Semiconductor job openings in Virginia as of August 2026, with employment types broken down into 100% Full Time. Highlights an 100% In-person job distribution, with an average salary of $88,111 per year, or $42.4 per hour.

Semiconductor Product Engineering Team Leader

Fractile

Bristol, VA • On-site

$130 - $160/hr

Other

Posted 16 days ago


Job description

Semiconductor Product Engineering Team Leader

Bristol

Fractile is building silicon, systems and software which will redefine the frontier of AI: running the world’s most advanced models at radically higher speed and lower cost. We have an exceptional team across hardware and software capable of bringing about this change, and we are growing fast to meet demand and deliver our product at scale.

We are seeking a senior Semiconductor Product Engineering leader to drive manufacturing test strategy and silicon production readiness for next‑generation AI accelerator devices. This role combines deep technical expertise in high‑performance compute silicon with leadership responsibility for internal product engineering teams and external development partners. The successful candidate will oversee all aspects of production test development — from DFT strategy and ATE bring‑up through silicon characterization, yield optimization, advanced packaging test, and high‑volume manufacturing ramp — ensuring robust, scalable, and cost‑effective test solutions for advanced AI accelerator platforms.

Key Responsibilities
  • Drive the manufacturing test strategy for an AI accelerator chip featuring PCIe Gen6, LPDDR, advanced CMOS nodes, and advanced packaging (e.g., 2.5D/3D, chiplet).
  • Lead and manage a team of chip product engineers responsible for test planning, test program development, pattern bring‑up, silicon characterization, debug, and optimization.
  • Manage subcontracted test development partners (OSATs, ATE vendors, external engineering services). Includes scoping, technical oversight, schedule tracking, and quality control of deliverables.
  • Define and drive test software architecture, DFT usage, and test pattern development strategies for high‑speed logic, SRAM, DRAM, and high‑speed IO blocks.
  • Work closely with design, DFT, manufacturing engineering, packaging, and validation teams to ensure robust test coverage, manufacturability, and yield ramp success.
  • Oversee test development for high speed interfaces such as PCIe Gen6 and multi‑GHz LPDDR.
  • Guide development of structural and functional test content (scan, MBIST, JTAG, HSIO tests, system‑level tests).
  • Lead silicon bring‑up and development on ATE: correlation, failure analysis, shmooing, corner testing, stress testing, and yield improvement activities.
  • Define KPIs and metrics for subcontractor performance, test coverage, yield, time‑to‑test, and cost optimization.
  • Drive continuous improvement in test methodologies, automation, data analytics, and debug infrastructure.
  • Ensure robust test flows for advanced packaging (thermals, interposer/bridge connections, TSV integrity, die‑to‑die IO testing).
  • Support qualification, reliability testing, and high‑volume manufacturing transfer.
Required Qualifications
  • BS/MS/PhD in Electronics and Electrical Engineering or related field.
  • 8+ years in semiconductor test engineering, including leadership or technical lead roles.
  • Experience with ATE test development (e.g., Advantest 93K, Teradyne Ultraflex or similar).
  • Strong understanding of DFT (scan, ATPG, LBIST, MBIST), memory testing, and high‑speed interface testing.
  • Experience managing external test development partners or OSATs.
  • Proven ability to lead and mentor test engineering teams.
  • Solid background in advanced CMOS nodes and familiarity with advanced packaging test challenges.
  • Expertise in silicon debug, characterization, and correlation across ATE and system‑level environments.
  • Ability to collaborate across design, architecture, product engineering, packaging, and operations.
Preferred Qualifications
  • Experience with AI/ML accelerator chips or other high‑performance compute ICs.
  • Prior involvement with PCIe Gen5/Gen6 or LPDDR4/5/6 test methodologies.
  • Familiarity with signal‑integrity-aware test development and high‑speed IO margining.
  • Experience with chiplets, 2.5D/3D IC test flows, or heterogeneous integration.
Export control and security clearance

Certain roles may involve working on technologies subject to export restrictions. Applicants may be required to undergo additional eligibility checks to ensure compliance with applicable law.

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