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Phd Semiconductor Jobs in Bothell, WA (NOW HIRING)

... PhD or Master's degree in Computer Science, Electrical Engineering, or a related field, or ... Advanced Micro Devices is a semiconductor company that designs and develops graphics units ...

Phd Semiconductor information

See Bothell, WA salary details

$41.9K

$99.3K

$164.9K

How much do phd semiconductor jobs pay per year?

As of Aug 3, 2026, the average yearly pay for phd semiconductor in Bothell, WA is $99,350.00, according to ZipRecruiter salary data. Most workers in this role earn between $77,700.00 and $120,700.00 per year, depending on experience, location, and employer.

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 positions in research and development may offer higher salaries, especially with specialized skills in device physics, fabrication, or circuit design.

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.

What degree to work with semiconductors?

A PhD in Electrical Engineering, Materials Science, Physics, or a related field is often required for advanced research and development roles in the semiconductor industry. Bachelor's and master's degrees can qualify candidates for engineering and manufacturing positions, with additional skills in circuit design, fabrication processes, and industry-standard tools like CAD software being beneficial.

What jobs can a PhD get you?

A PhD in semiconductor or related fields can lead to roles such as semiconductor device engineer, research scientist, process engineer, or systems architect. These positions often require advanced knowledge of materials, fabrication processes, and simulation tools, and are common in industries like electronics, aerospace, and research institutions.

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 are PhD Semiconductor professionals?

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 is the highest paying job in the semiconductor industry?

In the semiconductor industry, senior executive roles such as Vice President of Engineering or Chief Technology Officer typically have the highest salaries. These positions require extensive experience, leadership skills, and often advanced technical knowledge of semiconductor manufacturing and design tools.

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 popular job titles related to Phd Semiconductor jobs in Bothell, WA? For Phd Semiconductor jobs in Bothell, WA, the most frequently searched job titles are:
What job categories do people searching Phd Semiconductor jobs in Bothell, WA look for? The top searched job categories for Phd Semiconductor jobs in Bothell, WA are:
What cities near Bothell, WA are hiring for Phd Semiconductor jobs? Cities near Bothell, WA with the most Phd Semiconductor job openings:
Infographic showing various Phd Semiconductor job openings in Bothell, WA as of June 2026, with employment types broken down into 82% Full Time, 16% Part Time, 1% Contract, and 1% Nights. Highlights an 92% Physical, 2% Hybrid, and 6% Remote job distribution, with an average salary of $99,350 per year, or $47.8 per hour.

Research Engineer, AI for Chip Design

International Recruiting LLC

Bellevue, WA

Full-time

Posted 6 days ago


Job description

Full-time · On-site · San Jose, CA · Austin, TX or Taiwan

About Agentrys

Agentrys is building the next generation of design automation for the semiconductor industry.

Our mission is to enable every engineering organization to build its own self-improving agentic design workforce. Agentrys Studio combines AI agents, engineering knowledge, agent-native tools, advanced models, and continuous learning to automate complex chip-design workflows.

Our team brings deep experience in artificial intelligence, electronic design automation, semiconductor design, GPU-accelerated computing, and production software systems. We work closely with leading semiconductor companies to turn advanced research into technology that improves engineering productivity, design quality, and time to market.

The Role

We are looking for an exceptional Research Engineer to develop new technologies at the intersection of artificial intelligence, agentic systems, GPU-accelerated computing, and Electronic Design Automation.

You will identify important research problems, develop novel algorithms and agent-native tools, build working prototypes, and help deploy them in real semiconductor design environments. Your work may span AI agents, large language models, reinforcement learning, optimization, GPU-accelerated algorithms, verification, analog design, and other areas of chip design automation.

This role is ideal for someone who combines strong research ability with exceptional implementation skills and wants to see their ideas used in production—not remain only in papers or prototypes.

What You'll Do

  • Develop new AI and agentic methods for semiconductor design and verification.

  • Build novel agent-native tools and algorithms designed specifically for autonomous engineering workflows, rather than adapting interfaces built primarily for human users.

  • Develop GPU-accelerated algorithms for computationally intensive design, analysis, search, simulation, and optimization problems.

  • Create tools that expose design state, constraints, actions, feedback, and optimization objectives in forms that agents can reason over and use effectively.

  • Build agents that can understand engineering objectives, use EDA tools, execute multi-step workflows, analyze results, recover from failures, and improve over time.

  • Research and implement techniques involving large language models, reinforcement learning, parallel algorithms, search, optimization, program synthesis, and machine learning for engineering systems.

  • Develop solutions for workflows such as functional verification, analog and custom design, RTL development, synthesis, timing analysis, and physical design.

  • Design rigorous evaluation methods for engineering agents, including problems where design data is private, sparse, or customer-specific.

  • Translate promising research ideas into reliable, scalable product capabilities.

  • Integrate AI systems with simulators, formal tools, design databases, commercial EDA tools, GPU computing platforms, and customer engineering infrastructure.

  • Work directly with semiconductor engineers to understand complex workflows and identify high-impact automation opportunities.

  • Collaborate with research, product, platform, and solutions teams across San Jose, Austin, and Taiwan.

  • Contribute to patents, publications, technical presentations, and the broader development of Agentic Design Automation.

What We're Looking For

  • PhD or master's degree in Computer Science, Electrical Engineering, Computer Engineering, or a related field, or equivalent practical experience.

  • Strong programming skills in Python and proficiency in at least one systems language such as C++ or Rust.

  • Experience with machine learning frameworks such as PyTorch or JAX.

  • Demonstrated research or engineering experience in one or more of the following:

  • Electronic Design Automation

  • Semiconductor design or verification

  • Agentic AI or large language models

  • GPU-accelerated or parallel algorithms

  • Reinforcement learning

  • Combinatorial optimization

  • Program synthesis or code generation

  • Formal methods

  • Machine learning for engineering or scientific applications

  • Ability to take an ambiguous technical problem from initial formulation through experimentation, implementation, and evaluation.

  • Strong analytical, software engineering, optimization, and debugging skills.

  • High ownership, intellectual curiosity, and willingness to work across research and product boundaries.

  • Clear written and verbal communication skills.

Particularly Valuable Experience

  • Publications in leading EDA, AI, machine learning, systems, high-performance computing, or computer architecture venues.

  • Experience developing new EDA algorithms, optimization engines, design representations, or domain-specific tools.

  • Experience developing GPU-accelerated algorithms using CUDA, Triton, or related parallel-computing technologies.

  • Experience profiling and optimizing computational workloads across CPUs and GPUs.

  • Experience designing tools or environments for use by autonomous agents.

  • Experience with simulation, verification, synthesis, timing analysis, physical design, analog design, or layout.

  • Experience building agents that interact with tools, codebases, databases, or external environments.

  • Experience with LLM training, post-training, fine-tuning, retrieval, tool use, or evaluation.

  • Familiarity with Verilog, SystemVerilog, assertions, SPICE, TCL, or semiconductor design flows.

  • Experience with commercial EDA tools or production chip-design environments.

  • Experience deploying AI systems in enterprise or security-sensitive environments.

  • A strong record of implementation through research systems, open-source projects, production software, or technical competitions.

Why Agentrys

At Agentrys, you will have the opportunity to:

  • Help define a new category of semiconductor design technology.

  • Invent the agent-native algorithms and tools that will form the foundation of future automated design workflows.

  • Develop GPU-accelerated algorithms that make previously impractical design and optimization workflows possible.

  • Build AI systems that perform complex, consequential engineering work—not just generate recommendations.

  • Work with real semiconductor workflows, tools, and private engineering knowledge.

  • See your research deployed directly with leading chip-design organizations.

  • Work in a small, highly technical team where individual contributions can shape the product and company.

  • Collaborate with colleagues across San Jose, Austin, and Taiwan.

  • Change how chips are designed, rather than focus on only one design or one point tool.